This is a modern-English version of Book of Monsters: Portraits and Biographies of a Few of the Inhabitants of Woodland and Meadow, originally written by Fairchild, David, Fairchild, Marian. It has been thoroughly updated, including changes to sentence structure, words, spelling, and grammar—to ensure clarity for contemporary readers, while preserving the original spirit and nuance. If you click on a paragraph, you will see the original text that we modified, and you can toggle between the two versions.

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BOOK OF MONSTERS

 

BY
DAVID AND MARIAN FAIRCHILD

BY
DAVID AND MARIAN FAIRCHILD

 

PORTRAITS AND BIOGRAPHIES OF A FEW OF THE
INHABITANTS OF WOODLAND AND MEADOW

PORTRAITS AND BIOGRAPHIES OF A FEW OF THE
INHABITANTS OF WOODLAND AND MEADOW

 

 

 

WASHINGTON
NATIONAL GEOGRAPHIC SOCIETY
1914

WASHINGTON NATIONAL GEOGRAPHIC SOCIETY 1914

 

 

Copyrighted by
National Geographic Society

1914

Copyrighted by
National Geographic Society

1914

 

 

 

 


CONTENTS

CONTENTS

I. THE SPIDER WORLD.
II. THE INSECT WORLD.
  Straight-Winged Insects (Orthoptera).
Order of the Bugs (Hemiptera).
The Beetles (Coleoptera).
Two-Winged Insects (Diptera).
Butterflies and Moths (Lepidoptera).
Nerve-Winged Bugs (Neuroptera).
The Stinging Insects (Hymenoptera).
III. THE WORLD OF MYRIAPODS AND A SINGLE LAND CRUSTACEAN.

 

 


BOOK OF MONSTERS

MONSTER BOOK

The pictures in this book are portraits of creatures which are as much the real inhabitants of the world as we are, and have all the rights of ownership that we have, but, because their own struggle for existence so often crosses ours, many of them are our enemies. Indeed, man’s own real struggle for the supremacy of the world is his struggle to control these tiny monsters.

The pictures in this book are portraits of creatures that are just as much a part of the world as we are and have the same rights of ownership we do. However, since their fight for survival frequently conflicts with ours, many of them become our enemies. In fact, humanity's true battle for dominance in the world is really about trying to control these little monsters.

The plague of the middle ages, which spread like some mysterious supernatural curse over Europe and carried off millions of people, the yellow fever that has haunted the coasts of South America, the malaria which has strewn the tropics of the world with millions of graves, have been caused by the activities of two of these monsters so universally present in our homes as to have become almost domesticated creatures, the flea and the mosquito. During these last two decades these have come under our control, and the flies which leave a colony of germs at every footstep will not much longer be tolerated, indeed, every creature that bites and sucks our blood or that crawls over our food and dishes has been placed under suspicion.

The plague of the Middle Ages, which spread like a mysterious supernatural curse across Europe and killed millions of people, the yellow fever that has plagued the shores of South America, and the malaria that has left millions of graves scattered across the tropics, have all been caused by two of these monsters so commonly found in our homes that they seem almost like domesticated animals: the flea and the mosquito. Over the past two decades, we've learned to control these pests, and the flies that leave behind colonies of germs with every step will soon no longer be tolerated. In fact, every creature that bites and sucks our blood or crawls over our food and dishes is now under suspicion.

Man struggles against these tiny monsters not only for his life and health but for his food as well. Almost every cultivated plant has its enemy, and some of them have many. The bugs alone which stick their beaks into all sorts of plants to suck their juices would starve man out in one or two brief seasons if they in turn were not held in check by enemies of their own. The chinch bug alone has demonstrated his power to devastate the wheat fields. The bark beetles that girdle square miles of forest trees, the moths that destroy their foliage, the creatures that burrow into the fruit and fruit trees, the gall-forming flies that form galls on the roots of the grape vines able to destroy the revenues of a whole country, the beetle which strips the potato of its leaves, the one which infects with its dirty jaws the melon vines of the South and turns the melon patches brown—these are a few of the vast array of our enemies. It would require a book much larger than this one just to enumerate those well known.

Man fights against these tiny monsters not just for his life and health, but also for his food. Almost every cultivated plant has its adversary, and many have several. The bugs that pierce various plants to suck their juices could starve humans within a season or two if they weren’t kept in check by their own predators. The chinch bug has shown its ability to ruin wheat fields. The bark beetles that kill vast areas of forest trees, the moths that ruin their leaves, the creatures that tunnel into fruits and fruit trees, the gall flies that create galls on grape vine roots and can wipe out a country’s revenue, the beetle that strips the leaves off potatoes, and the one that infects the melon vines in the South, turning the patches brown—these are just a few of the many enemies we face. It would take a book much larger than this one just to list those that are well-known.

It should make every American proud to know that it is the American economic entomologist who has, more than any other, pushed his way into this field and shown mankind how to fight these monsters which destroy his food, his animals and himself.

It should make every American proud to know that it is the American economic entomologist who has, more than anyone else, made significant strides in this field and taught us how to combat these threats that ruin our food, our livestock, and ourselves.

But all these fascinating little creatures are not our enemies. We must not forget that man has domesticated certain of the insects and that gigantic industries depend upon them for their existence.

But all these fascinating little creatures aren't our enemies. We must remember that humans have domesticated some insects and that huge industries rely on them to survive.

The honey-bee furnished mankind with sweets during the generations[Pg 6] preceding the discovery of the sugar cane, and the silk worm furnishes still the most costly raiment with which we clothe ourselves.

The honeybee has provided sweetness to people through the ages[Pg 6] before sugar cane was discovered, and the silkworm still gives us the most expensive clothing that we wear.

The friends we have in the insect world are those which destroy the pests of our cultivated crops like the Australian lady-bird beetle which has been sent from one country to the other to keep in check the fluted scale which is so injurious to the orange orchards, and the parasites of the gipsy-moth which, in Europe, helps to keep under control this plague of our forest trees, must certainly be counted as our friends.

The friends we have in the insect world are those that eliminate the pests harming our crops, like the Australian ladybug, which has been transported from one country to another to control the fluted scale that damages orange orchards. The parasites of the gypsy moth, which help keep this pest in check in Europe, should definitely be considered our allies.

Also, they are our friends if, like the spiders, they kill such monsters as suck our blood or make our lives unsafe, or, like the great hordes of wasps and hornets, wage unending warfare against the flies but which, because they attack us personally if we come too near their nests, we kill on sight. Strangely enough, it is often these same stinging insects which help us by fertilizing the blossoms of our fruit trees. Indeed many plants are so dependent on these little creatures that they have lost the power of self-fertilizing and thousands of species of trees and plants would become extinct in a generation without their friendly aid.

Also, they are our friends if, like spiders, they take down monsters that suck our blood or make our lives dangerous, or, like the large groups of wasps and hornets, constantly fight against flies. However, because they attack us personally if we get too close to their nests, we kill them on sight. Strangely enough, it's often these same stinging insects that help us by pollinating the flowers of our fruit trees. In fact, many plants are so dependent on these little creatures that they've lost the ability to self-fertilize, and thousands of species of trees and plants would die out in a generation without their helpful assistance.

The ancestors of some of the creatures pictured in this book were buried in the transparent amber of the Baltic many thousands of years ago and the fossil remains of others date back a million years or more, but while man has been developing his surroundings from the primitive ones of savagery to the almost inconceivably complicated ones of civilized life, these creatures, most of them at least, seem to be leading essentially the same kind of lives that they led hundreds of thousands of years ago.

The ancestors of some of the creatures shown in this book were buried in the clear amber of the Baltic thousands of years ago, and the fossil remains of others go back a million years or more. However, while humans have evolved their environment from the primitive state of savagery to the incredibly complex nature of modern life, these creatures, at least most of them, appear to be living essentially the same kind of lives they lived hundreds of thousands of years ago.

They have powers which neither man nor any other mammal ever dreamed of having.

They have abilities that no human or any other mammal has ever imagined having.

Some have powers of flight which enable them to sail a thousand miles before the wind. Others can jump a hundred times their own length. One of these monsters can manufacture a liquid rope as easily as mammals produce milk and with it weave aerial nets to trap their prey or, by attaching it, can drop from the dizziest heights without danger, and when the rope has served its purpose they eat it up.

Some have the ability to fly, allowing them to travel a thousand miles with the wind. Others can leap a hundred times their own length. One of these creatures can create a liquid rope as easily as mammals produce milk, using it to weave aerial nets to catch their prey or, by securing it, can drop from great heights without risk. When the rope has fulfilled its purpose, they simply consume it.

Their weapons of defense are comparable to the deadly ones that only poisonous serpents have. If they were larger they would be, in fact, what legend pictures the dragons to have been.

Their defensive weapons are similar to the lethal ones that only poisonous snakes possess. If they were larger, they would actually be what legends describe dragons as being.

The unthinkably old germ plasm of these species produces creatures which act with a precision of purpose and a degree of absolute self-sacrifice which cannot fail to stagger the most conscientious of the human race. They might even make one wonder whether the fulfillment of biological life does not consist in sacrifice of the individual for the good of the species to which it belongs.

The incredibly ancient genetic material of these species creates beings that operate with precise intent and an extraordinary level of selflessness that is sure to astonish even the most thoughtful humans. It might even lead one to question whether the essence of biological existence is not about the individual sacrificing themselves for the benefit of the species they are part of.

Certain it is, that human thought is now drifting away from the consideration of the individual and is coming to pay more attention to the species and the things which affect its development. This is a picture book produced in[Pg 7] the playtime hours of two busy people. It is a collection of actual photographs of a few of the small-sized monsters which inhabit the tall grass, the flower garden and vegetable garden, the pines and oaks of a place in the woods of Maryland.

It's clear that human thinking is shifting away from focusing on individuals and instead paying more attention to the species and the factors that influence its development. This is a picture book created in[Pg 7] the spare time of two busy people. It features a collection of real photographs of some of the small-sized creatures that live in the tall grass, flower beds, vegetable gardens, and the pines and oaks of a location in the woods of Maryland.

If it should show to others a world of new and fascinating things it would be simply doing for them what the taking of the photographs has done for us, opened the door into a realm of real life, of a terrible struggle to live, which is as full of fascination as the dragon tales of old Japan. At the same time, it makes us realize what vast and yet untouched fields of material value lie in the efforts man is making to outwit and circumvent and even, perhaps, to exterminate such of the monsters as encroach upon his own environment.

If it shows others a world of new and fascinating things, it would be doing for them what taking the photographs has done for us: opening the door to a realm of real life, a harsh struggle to survive, that is as captivating as the dragon tales of old Japan. At the same time, it makes us realize what vast and still untouched areas of material value lie in the efforts humans are making to outsmart, evade, and perhaps even exterminate the monsters that intrude upon their own environment.

 

HOW THE MONSTER PHOTOGRAPHS WERE TAKEN

HOW THE MONSTER PHOTOS WERE TAKEN

If you compare these photographs with those to be found in most books on insects, you will find that they differ in several particulars. They are all either front views or side views of the creatures, whereas those in books on entomology are generally views from above. Imagine a book on the horse in which only top views were shown, or a guide to a zoölogical garden illustrated with the various wild beasts photographed from above. It is true that, being an much larger, we generally look down at these monsters, but a mouse also generally runs along the floor or under our feet and yet a zoölogist pictures it from the same point of view that he does an elephant. Crows look down upon us, yet I imagine that no one will admit that the crow’s impression of human beings is as correct or as interesting as that which we have of ourselves. Every creature has a right to be portrayed from its own level, and the reason these photographs are unusual is because they carry out this principle and do each creature justice.

If you compare these photos with those typically found in most insect books, you'll notice they differ in several ways. They are all either front views or side views of the creatures, while those in entomology books are usually taken from above. Imagine a book about horses showing only top views, or a guide to a zoo featuring various wild animals photographed from above. It's true that, because they are much larger, we generally look down at these creatures, but a mouse often runs along the floor or beneath our feet, and still, a zoologist depicts it from the same perspective as an elephant. Crows look down on us, yet I doubt anyone would agree that a crow’s view of humans is as accurate or as compelling as our own perspective of ourselves. Every creature deserves to be depicted from its own level, and the reason these photos are unique is that they honor this principle and do each creature justice.

Another particular in which these pictures are new is that, although they represent magnifications of from five to twenty diameters, they are not enlargements from small photographs, but views taken directly from 5 × 7 photographic negatives.

Another aspect in which these images are different is that, although they show magnifications of five to twenty times, they are not enlargements of small photographs, but rather views taken directly from 5 × 7 photographic negatives.

Then too, these creatures have been posed with considerable care in order to give them a lifelike appearance, and this work was done immediately after they had been anesthetized, and in some cases while they were still alive.

Then too, these creatures have been arranged with a lot of care to make them look lifelike, and this work was done right after they were anesthetized, and in some cases while they were still alive.

The whole art of taking these large photographs of insects is so simple that thousands of amateurs ought to be able to take them.

The entire process of capturing these large photos of insects is so easy that thousands of hobbyists should be able to do it.

The outfit consists of the camera, which is just a long box, a long-focus lens, a piece of ground glass and a focusing glass, a flash light, a pair of pincers, some needles mounted in handles or else some small dental tools, a few little blocks of wood, a candle, a piece of glass covered with tissue paper, and a long hollow cylinder made of stiff black paper or cardboard. Add to these a great deal of patience and you have all that is needed.

The setup includes a camera, which is basically a long box, a long-focus lens, a piece of ground glass and a focusing glass, a flashlight, a pair of tweezers, some needles attached to handles or a few small dental tools, a few small blocks of wood, a candle, a piece of glass covered with tissue paper, and a long hollow tube made of stiff black paper or cardboard. Add a lot of patience, and you have everything you need.

[Pg 8]I made my camera box out of thin quarter-inch whitewood boards and pasted black paper over the joints to keep out the light. Into one end of this box I set the front board with the objective screwed into it. Squaring off the other end of the box, I carefully fitted to it a 5 × 7-inch ground glass holder, exactly the size of an ordinary 5 × 7 plate holder. I framed this in with pieces of wood so that I could slip out the ground glass holder and put a plate holder in its place. For purposes which will be explained later, the ground glass was not fastened into its holder, but a narrow slit through one end of the frame was made just large enough so that it could be slid in or out without taking out the frame itself.

[Pg 8]I built my camera box using thin quarter-inch whitewood boards and glued black paper over the joints to block out any light. I attached the front board with the lens screwed into it on one end of the box. On the other end, I fitted a 5 × 7-inch ground glass holder, which was the exact size of a standard 5 × 7 plate holder. I framed it with pieces of wood so I could easily slide out the ground glass holder and replace it with a plate holder. For reasons that will be explained later, the ground glass wasn’t secured in its holder; instead, a narrow slit was made at one end of the frame, just big enough to slide the glass in and out without removing the frame itself.

The object to be taken, having been mounted on a little block of wood and fastened there with candle wax, is placed in front of the long focus lens by an assistant, who stands ready to move it back and forth, or sideways, or up and down, according to directions.

The object to be taken, mounted on a small block of wood and secured with candle wax, is positioned in front of the long-focus lens by an assistant, who is prepared to move it back and forth, sideways, or up and down, as directed.

Getting to the far end of the camera under the focusing cloth, I begin to hunt for the dim image on the ground glass, and, by directing the assistant to move the object in various ways, am quickly able to bring it into view, but not into sharp focus. In order to do this, I slip the ground glass itself half way out, take up the focusing glass, holding it against the edge of the ground glass in order to steady it. I am thus able to see every detail distinctly without looking through the ground glass at all and can make sure that they are in focus. With the focusing lens, one is able to see the image in the air very plainly, even when the diaphragm is nearly closed and when only the faintest shadow could be seen on the ground glass.

Getting to the far end of the camera under the focusing cloth, I start searching for the faint image on the ground glass. By guiding the assistant to move the object in different ways, I can quickly make it visible, though it's not quite in sharp focus yet. To do this, I pull the ground glass halfway out, pick up the focusing lens, and hold it against the edge of the ground glass to keep it steady. This way, I can see every detail clearly without looking through the ground glass at all and can ensure that everything is in focus. With the focusing lens, I can see the image in the air very clearly, even when the diaphragm is almost closed and only the slightest shadow appears on the ground glass.

Having made sure that the image covers the plate well and is in good focus, I put in my plate holder, my assistant places the cap over the objective, I draw the slide and walk down to the front of the long camera. Wills, my assistant, then prepares a charge in the Prosch flash lamp and puts the tube of black paper in front of the lens to protect it from the glare of the flash. With one hand I hold up a pane of glass on which thin white paper has been fastened to protect the insect from the direct sunlight; with the other hand I remove the cap of the camera and expose the plate for from 50 to 80 seconds, depending upon the lightness of the object, the brilliancy of the sunlight and the stop employed, 16, 32 or 64. In the meantime, Wills blows off a full charge of magnesium powder in the flash lamp, so holding the lamp that the rays from it will light up the shadows which are underneath the creature’s body. The cap is then put on again and the plate holder closed in the ordinary way. Only the freshest obtainable orthochromatic double-coated plates are used.

Having made sure that the image covers the plate well and is in focus, I put in my plate holder, my assistant places the cap over the lens, I draw the slide, and walk down to the front of the long camera. Wills, my assistant, then prepares a charge in the Prosch flash lamp and puts the tube of black paper in front of the lens to protect it from the glare of the flash. With one hand, I hold up a pane of glass with thin white paper attached to protect the insect from direct sunlight; with the other hand, I remove the cap of the camera and expose the plate for 50 to 80 seconds, depending on the lightness of the object, the brightness of the sunlight, and the aperture used, 16, 32, or 64. In the meantime, Wills blows a full charge of magnesium powder into the flash lamp, positioning it so the light will illuminate the shadows under the creature’s body. The cap is then put back on, and the plate holder is closed in the usual way. Only the freshest orthochromatic double-coated plates are used.

The friends who visited us on holidays helped make the long camera, and it was made at three separate times, an eight-foot length at a time. When the creature is very small I use the twenty-four-foot length, but when it is large the twelve or eight-foot one. Each length fits into the one in front of it and is covered with black cloth to make it tight.

The friends who visited us during the holidays helped us make the long camera, which was assembled in three separate sections, each eight feet long. When the creature is really small, I use the twenty-four-foot length, but when it’s larger, I opt for the twelve or eight-foot one. Each section connects to the one in front of it and is covered with black cloth to keep it snug.

[Pg 9]The taking of the photographs is not, however, the hardest work of monster photographing, although perhaps the hottest, for in summer it is no joke to swelter under a focusing cloth for half an hour at a time, and the focusing itself is hard on the eyes. It is the mounting of the beasts which wears upon one’s nerves, and here is where the woman’s skill comes, for Mrs. Fairchild learned the art of insect taxidermy and many of the most lifelike photographs in the book were mounted by her.

[Pg 9]Taking the photographs isn’t the toughest part of capturing monsters, although it might be the hottest, because in summer it’s no joke to sweat under a focusing cloth for half an hour at a time, and focusing itself can strain the eyes. The real challenge is mounting the creatures, which tests one’s nerves, and this is where the woman's expertise shines, as Mrs. Fairchild mastered the art of insect taxidermy, and many of the most lifelike photographs in the book were mounted by her.

It has been a source of keen satisfaction to find, upon showing the results to professional entomologists, that many of them did not realize that the insects were not alive when photographed. But, although they were not alive, they had just recently been put to sleep with ether, for we soon discovered that to get a lifelike photograph one must photograph a monster at once, within half an hour after death, the sooner the better.

It has been incredibly satisfying to discover, after sharing the results with professional entomologists, that many of them didn’t realize the insects weren’t alive when photographed. However, even though they weren’t alive, they had just recently been put to sleep with ether, because we soon found out that to get a lifelike photograph, you need to photograph a specimen right away, within half an hour after death—sooner is definitely better.

Many ways of mounting were tried, but none were so successful as the following: Cover the top of a small block of wood with a thin, even coating of paraffin or ordinary candle wax by letting the drippings of the candle fall upon it. Pick a large leaf and turn its upper surface down upon the wax, before it cools, and let it stick there; this will give a natural looking ground for the insect to stand upon. Hold the insect over the block of wood and arrange the legs in as natural a position as you can with a long needle or fine dental tool. Then fasten each foot in place by heating the needle in the candle flame and pricking a hole in the leaf just under each foot so that the wax will come up through the leaf and hold it fast.

Many methods of mounting were attempted, but none worked as well as this: Cover the top of a small piece of wood with a thin, even layer of paraffin or regular candle wax by allowing the candle drippings to fall onto it. Take a large leaf and place its upper surface down onto the wax before it cools, letting it stick there; this will create a natural-looking base for the insect to rest on. Hold the insect over the block of wood and arrange its legs in the most natural position possible using a long needle or fine dental tool. Then, secure each foot in place by heating the needle in the candle flame and pricking a hole in the leaf just beneath each foot so that the wax seeps through the leaf and holds it firmly.

This mounting is not so simple as it seems, and, until one has actually experienced it, he can have no idea of the perversity of these six-legged beasts. The way the contracting muscles of a grasshopper’s back legs will pull the other four legs loose, or the way the hornet will refuse to hold its head up, or the way long flexible antennæ will droop are exasperations which lead straight to profanity, unless one is very careful.

This setup isn't as easy as it looks, and until you've actually gone through it, you can't imagine how stubborn these six-legged creatures can be. The way the muscles in a grasshopper's back legs contract and pull the other four legs loose, or how a hornet won't keep its head up, or how long flexible antennae droop can really test your patience and might lead to cursing, unless you're very careful.

The whole thing is a game of quickness, ingenuity and patient skill, for so many things must be watched at once. The wilting insect cannot wait, the sunlight shifts, clouds drift across the sun and then, just as everything is in readiness, a breeze springs up which stirs the creature’s wings and the whole thing has to be given up.

The whole thing is a game of speed, creativity, and steady skill, since so many factors need to be monitored at the same time. The wilting insect can't wait, the sunlight changes, clouds move across the sun, and just when everything is set, a breeze kicks in that rustles the creature’s wings, forcing you to start all over again.

The pioneer in this field of photography is Dr. N. A. Cobb, for it is he who first showed what the face of a fly looks like. His suggestions are what first encouraged me to take up the work, although the method finally used by me is quite different from that which he employed. I substituted the long horizontal camera and the long focus lens for his vertical bellows and short focus lens, believing that for larger creatures I get a greater depth of focus and more lifelike appearance.

The pioneer in this field of photography is Dr. N. A. Cobb, as he was the first to show what a fly's face looks like. His suggestions inspired me to pursue this work, although the method I ultimately used is quite different from his. I replaced his vertical bellows and short focus lens with a long horizontal camera and long focus lens, thinking that for larger creatures, I achieve a greater depth of focus and a more realistic appearance.

After my first mild success, that critical period beyond which so many experiments never go, three friends came to the rescue with their enthusiastic approval and encouragement and I desire that their names be connected with this book which they have helped to make, Mr. and Mrs. Alexander Graham Bell and Mr. Barbour Lathrop.

After my first small success, that crucial moment where so many experiments fail to progress, three friends stepped in with their enthusiastic support and encouragement. I want their names to be associated with this book that they helped create: Mr. and Mrs. Alexander Graham Bell and Mr. Barbour Lathrop.

THE LONG CAMERA WITH WHICH THE MONSTERS WERE TAKEN

THE LONG CAMERA THAT WAS USED TO CAPTURE THE MONSTERS

The camera, consisting of several long boxes which fit into one another, is stretched on a table made of board and a number of posts set in the ground. At one end is the lens and at the other, the ground glass plate to focus the image on. The monster is mounted on a small wooden block and set up the proper distance in front of the lens. It is moved back and forth in response to directions from the operator, at the other end of the camera, who is watching the image on the ground glass. Lying on the camera above the lens is a black paper cone which, when everything is ready, is put over the lens between it and the monster to prevent the smoke from the flash powder from drifting between the lens and the insect during the exposure. Wills, the assistant, is holding the Prosch magnesium blow lamp, and the insect is shaded from the direct rays of the sun by a large pane of glass covered with a thin sheet of tissue paper. Direct sunlight is reflected from the hairs and polished surfaces of the insects and makes spots on the negative.

The camera, made up of several long boxes that fit into each other, is set up on a board table supported by a number of posts in the ground. One end features the lens, while the other has a ground glass plate to focus the image. The "monster" is placed on a small wooden block and positioned at the right distance in front of the lens. It’s adjusted back and forth based on instructions from the operator at the other end of the camera, who is looking at the image on the ground glass. Above the lens, there’s a black paper cone that, when everything is ready, is placed over the lens between it and the insect to stop the smoke from the flash powder from blowing between the lens and the insect during the exposure. Wills, the assistant, is holding the Prosch magnesium blow lamp, while the insect is shielded from direct sunlight by a large pane of glass covered with a thin layer of tissue paper. Direct sunlight reflects off the hairs and shiny surfaces of the insects, causing spots on the negative.

SOME OF THE MONSTERS AS THEY APPEAR WHEN MOUNTED ON PINS IN AN INSECT BOX

SOME OF THE MONSTERS AS THEY APPEAR WHEN MOUNTED ON PINS IN AN INSECT BOX

It has always seemed a pity to me that these beautiful forms of life should be so evanescent. We look at their dried remains in collections and are impressed by their colors and grotesque forms, but we should not forget that after all these are nothing but their dried-up corpses and scarcely more to be compared in real beauty with their living bodies than are the Egyptian mummies comparable to the living faces and forms of the great Pharaohs.

It has always seemed like a shame to me that these beautiful forms of life are so fleeting. We look at their dried remains in collections and are struck by their colors and strange shapes, but we shouldn't forget that, in the end, they are just their dried-up bodies and hardly compare in real beauty to their living selves, much like how Egyptian mummies don't compare to the living faces and bodies of the great Pharaohs.

THE MONSTERS PICTURED ON THE SUCCEEDING PAGES,
AND MANY MORE, IMPRISONED IN ONE MUSEUM CASE

THE MONSTERS SHOWN ON THE NEXT PAGES,
AND MANY MORE, TRAPPED IN ONE MUSEUM DISPLAY

They are all pinned in the box and have dried out and changed almost beyond recognition, but the impression which their portraits have made will, I hope, be lasting.

They are all pinned in the box and have dried out and changed almost beyond recognition, but I hope the impression their portraits have made will be lasting.

 

[Pg 13]Knowing little about insects I have been dependent upon the kindness of the entomologists of the National Museum, in particular on Dr. L. O. Howard, for the scientific names of the monsters, which names have given me access to what is published about them in the handbooks on entomology.

[Pg 13]Since I don't know much about insects, I have relied on the generosity of the entomologists at the National Museum, especially Dr. L. O. Howard, for the scientific names of these creatures. These names have allowed me to access the information about them found in the entomology handbooks.

Practically all of the negatives and prints have been made by Mr. Scott Clime of the Department of Agriculture, who took a particular interest in their preparation.

Practically all of the negatives and prints have been created by Mr. Scott Clime from the Department of Agriculture, who was especially interested in their preparation.

To Mr. Gilbert H. Grosvenor, Director and Editor of the National Geographic Society, is due the credit of realizing the popular interest these pictures would have and who, in contrast with more timid publishers, reproduced thirty-nine of them in the National Geographic Magazine and urged the preparation of this book.

To Mr. Gilbert H. Grosvenor, Director and Editor of the National Geographic Society, goes the credit for recognizing the public interest in these images. Unlike more cautious publishers, he published thirty-nine of them in the National Geographic Magazine and encouraged the creation of this book.

 

 


Chapter 1
THE SPIDER WORLD

THE SPIDER WORLD

THE WORLD OF SPIDERS

In enlarging the images of these small spiders to many times their size, one is at once struck by their similarity to crabs and lobsters. Their jointed legs encased in shells, which from time to time they shed, remind one strongly of the crabs, and they do in fact belong to the some great family, the family of arthropods, and they are not insects.

In enlarging the images of these small spiders to several times their size, you are immediately struck by how much they resemble crabs and lobsters. Their jointed legs covered in shells, which they shed from time to time, strongly remind you of crabs, and they actually belong to the same large family, the family of arthropods, and they are not insects.

The spider world is the world of eight-legged creatures just as the insect world is the world of the six-legged ones, and educated men and women should no more confuse these great classes of beings than they confuse the bipeds with the quadrupeds.

The spider world is full of eight-legged creatures just as the insect world is home to six-legged ones, and knowledgeable people should not confuse these major categories of beings any more than they would mix up two-legged creatures with four-legged ones.

They differ from the insects in other ways than in the number of their legs—they have no feelers or antennæ, those wonderful sense organs which all insects have, but here and there, especially on the legs, are strange hollow bristles or spines, which end in nerves. Their eyes also are not like insects’ eyes. An insect’s eyes, at least its large prominent ones, are composed of hundreds of lenses or facets, while the spider, though he generally boasts of eight, has only simple ones with single lenses.

They differ from insects in more ways than just the number of legs—they don't have feelers or antennae, those amazing sense organs that all insects possess. Instead, they have strange hollow bristles or spines scattered on their legs, which end in nerves. Their eyes are also different from those of insects. An insect’s eyes, especially the larger prominent ones, are made up of hundreds of lenses or facets, while the spider, although it typically has eight, only has simple eyes with single lenses.

Their life is very simple as compared with that of many of the insects. In the fall, the mother spiders lay their eggs in a bag of their own silk, often several hundred eggs being laid in one sac. The spiderlings hatch out in the sac, and, in the North, they spend the long winter there.

Their life is pretty simple compared to that of many insects. In the fall, mother spiders lay their eggs in a silk bag, often putting several hundred eggs in one sac. The spiderlings hatch inside the sac and, in the North, they spend the long winter there.

They do not have two stages of existence as beetles or butterflies do, but are hatched out mature and equipped with the poison fangs which aid them in their strictly carnivorous, and often even cannibalistic, existence.

They don’t have two life stages like beetles or butterflies do; instead, they’re born fully developed with poison fangs that help them in their strictly carnivorous, and often even cannibalistic, way of life.

They grow and shed their skins as do the baby grasshoppers, but they do not change their form with each moult and none of them have wings.

They grow and shed their skin just like baby grasshoppers, but they don't change their shape with each molt, and none of them have wings.

They have inside their bodies, reservoirs of strange, sticky fluids which they can pour out through spigots in many different ways. This fluid, as it dries, may form drag lines which they trail behind them and fasten as they go to use for safety lines; with some spiders it may even be poured out in such quantities that it makes an aeroplane; with the majority, however, it is used to make their nests or their egg sacs or the marvelously beautiful orbs that prove the graveyards of so many careless insects. For the spiders are the enemies of the insect world; were they more discriminating, they would be perhaps the greatest friends of the human race, but, as they suck all kinds of insects’ blood, all that we can be sure of is that those among them which we find in our houses are a benefit, for there they kill the flies and other insects which we do not want indoors.

They have inside their bodies reservoirs of strange, sticky fluids that they can release through spouts in various ways. This fluid, as it dries, can create drag lines that they trail behind and use for safety; some spiders even produce enough to form a web-like structure. Generally, though, it’s used to build their nests, eggs sacs, or the beautifully intricate webs that trap countless careless insects. Spiders are the predators of the insect world; if they were more selective, they could be our greatest allies. However, since they consume the blood of all kinds of insects, we can only be sure that those we find in our homes are helpful, as they catch the flies and other unwanted pests.

[Pg 17]To their Southern and especially their tropical cousins, which attack and sometimes kill human beings, this group of fascinating creatures owes the dread in which it is held by people in general. It is a pity, for throughout the Northern states, no dangerous species is known to exist, and those which frequent our houses will no more attack us than do the flies they catch and devour.

[Pg 17]This group of fascinating creatures is often feared because of their Southern and especially tropical relatives that can attack and sometimes kill humans. It’s unfortunate, because in the Northern states, there are no known dangerous species, and the ones that come into our homes are no more likely to attack us than the flies they catch and eat.

Until a child has gazed in wonder at an orb weaver as it spins its web between the trees, or been an eye-witness of the death of some insect unlucky enough to fall into a web, he has not taken his first step toward the wonderland which touches him on every side and he is in grave danger of growing up with a blind side—the side turned toward the field and forest.

Until a child has marveled at an orb weaver spinning its web between the trees, or witnessed the demise of an insect unfortunate enough to get trapped in a web, he hasn't taken his first step into the wonderland that surrounds him. He risks growing up with a blind spot—the one turned away from the fields and forests.

There are millions upon millions of spiders, and thousands of species, and they live everywhere from the Arctic Regions to the Tropics. They devour countless myriads of flies and gnats and hosts of other insects, and nobody knows just what good they do us, but every entomologist would hold up his hands in fear at what the result might be should the spiders of the world be blotted out. They must hold countless parasites in check and help to keep the balance even.

There are millions and millions of spiders, with thousands of species, and they live everywhere from the Arctic to the Tropics. They consume countless flies, gnats, and many other insects, and while no one can say exactly what benefits they provide us, every entomologist would be alarmed at the potential consequences if all the spiders in the world were wiped out. They must control countless parasites and help maintain ecological balance.

If all the little children should learn that they are harmless, I wonder if they could not stop their nurses from killing them. It is the ignorance of those who train our little ones that keeps alive the unreasoning hatred towards so many of the wonder creatures of the woods.

If all the little kids could understand that they mean no harm, I wonder if they could prevent their caregivers from hurting them. It's the lack of understanding from those who raise our little ones that fuels the pointless hatred towards so many of the amazing creatures in the woods.

 

AN EIGHT EYED ENEMY OF THE FLY; A JUMPING SPIDER

AN EIGHT-EYED ENEMY OF THE FLY; A JUMPING SPIDER

(Phidippus audax, Hentz)

(Phidippus audax, Hentz)

We are so accustomed to beasts with two eyes that it is hard to realize that all around us, though hard to see, are little monsters with many eyes of various sizes.

We’re so used to animals with two eyes that it’s hard to notice that all around us, even if they’re tough to see, are little creatures with many eyes of different sizes.

This one has eight eyes, four of which are invisible from the front. The eyes are diurnal, enabling the creature to hunt only by day. Its eight stout legs fit it for jumping forward or sideways with great ease. In comparison with its size, its jumping powers are incredible. If it were the size of a tiger, it would be a beast of prey which could clear a quarter of a mile at a bound.

This one has eight eyes, four of which you can't see from the front. The eyes are active during the day, allowing the creature to hunt only in daylight. Its eight strong legs make it really good at jumping forward or sideways with ease. Considering its size, its jumping ability is amazing. If it were the size of a tiger, it would be a predator that could jump a quarter of a mile in a single leap.

It can sit on a branch and throw out an elastic dragline behind, strong enough to bear its weight, and by this means it is able to jump at and catch its prey on the fly, regaining its position by climbing up the dragline. Add to this that it possesses a pair of powerful hollow fangs, into which poison sacs empty, and a voraciousness which often leads it into cannibalism, and you have a fair picture of this jumping spider, which is one of a thousand species of little creatures found everywhere except in the polar regions. They range in size from a third to a half an inch long and live under stones and sticks, spending the winter in a silken bag of their own manufacture, but never spinning a web. The males of some species have been observed to dance before the females, holding up their hairy legs above their heads apparently to show off their ornamentation.

It can sit on a branch and release an elastic dragline behind it, strong enough to support its weight, allowing it to leap at and catch its prey mid-air, then return to where it started by climbing up the dragline. Additionally, it has a pair of powerful hollow fangs that release venom, and its appetite can lead to cannibalism, giving you a solid picture of this jumping spider, one of thousands of tiny creatures found everywhere except in polar regions. They range in size from a third to a half an inch long and live under rocks and sticks, spending the winter in a silken bag they make themselves, but they never spin a web. Males of some species have been seen dancing in front of females, raising their hairy legs above their heads as if to show off their decorations.

 

READY TO POUNCE ON A FLY ON THE WING; THE JUMPING SPIDER

READY TO POUNCE ON A FLY IN FLIGHT; THE JUMPING SPIDER

These is something diabolical in the way these four black eyes in a row stare one out of countenance.

There’s something wicked about the way these four black eyes in a row stare you down.

 

A JUMPING SPIDER READY TO SPRING FROM A LEAF

A jumping spider poised to leap from a leaf.

(Phidippus togatus, Koch.)

(Phidippus togatus, Koch.)

I must confess to a peculiar feeling of embarrassment, almost of fear, towards a jumping spider. It stares at you so intently and seems no fearless as it wheels to keep you covered with its battery of eyes; and you never know which way it is going to jump.

I have to admit that I feel a strange mix of embarrassment and even fear when it comes to a jumping spider. It looks at you so intensely and seems completely fearless as it moves around, keeping you in its sight with all its eyes; and you never know which direction it will jump.

 

THE WOLF-SPIDER

THE WOLF SPIDER

(Lycosa carolinensis, Walck.)

(Lycosa carolinensis, Walck.)

This is not the photograph of a polar bear, but that of a wolf-spider, with a battery of eight eyes on the top of its head and poison fangs hanging below.

This isn't a picture of a polar bear; it's a wolf spider, sporting eight eyes on top of its head and venomous fangs below.

Some such impression as this, I imagine, must be made on the retina of a fly or beetle when, in wandering through the grass at dusk, it suddenly finds itself face to face with a wolf-spider sitting on the turret which forms the entrance to its web-lined hole in the ground.

Some impression like this, I think, must be made on the eyes of a fly or beetle when, wandering through the grass at dusk, it suddenly finds itself face to face with a wolf spider sitting on the turret that forms the entrance to its web-filled hole in the ground.

Behind and above the fangs and hidden in their shadow is the creature’s mouth, toothless and made for sucking only. With his fangs, this wolf-spider kills and crushes his victim; then he sucks the body dry and throws away the carcass.

Behind and above the fangs, hidden in their shadow, is the creature's mouth, which has no teeth and is meant only for sucking. With his fangs, this wolf spider kills and crushes his prey; then he sucks the body dry and discards the carcass.

Seen here and there above the body hairs are black spines, hollow inside and connected with the nerves of touch. Of his eyes, the two in the center in front are supposed to be for use by day, while all the others are nocturnal, enabling him to stalk his prey at dusk. It is the wolf-spider that often appears at night within the circle of lamplight searching for nocturnal insects.

Seen here and there above the body hairs are black spines, hollow inside and connected with the nerves of touch. Of his eyes, the two in the center in front are supposed to be for use during the day, while all the others are for night vision, allowing him to hunt his prey at dusk. It's the wolf spider that often shows up at night within the circle of lamplight looking for nocturnal insects.

The nocturnal eyes are remarkable organs, with reflecting structures so placed behind the retina that the light entering the eye traverses the retina twice, and it is supposed that this reflecting structure increases the effect of any faint light, enabling the creature to “see in the dark.”

The eyes of night creatures are amazing organs, with reflective structures positioned behind the retina that allow light entering the eye to pass through the retina twice. It's believed that this reflective structure enhances the impact of any dim light, allowing the creature to "see in the dark."

This is a hunting spider, chasing its prey through the grass or lurking under stones, especially in damp places.

This is a hunting spider that chases its prey through the grass or hides under stones, especially in moist areas.

It does not spin a web, but lives in a silk-lined hole six or eight inches deep, which it digs in the ground, and around the entrance to which, out of sticks and grass, it builds a turret or watch-tower, from which it can see its prey more readily than from the ground. These spider holes are common in the meadows of Maryland.

It doesn't spin a web, but it makes a silk-lined hole six or eight inches deep, digging it into the ground. Around the entrance, it constructs a turret or watchtower from sticks and grass, allowing it to spot its prey more easily than if it were on the ground. These spider holes are common in the meadows of Maryland.

In form and color the wolf-spider resembles the famous tarantula of southern Europe, the bite of which was supposed to cause the tarantella, or dancing madness; but it is as harmless as a butterfly, and indeed, Doctor Comstock, who is the authority on spiders, believes that no spiders in the Northern states are poisonous to man.

In looks and color, the wolf spider is similar to the well-known tarantula from southern Europe, which was thought to cause the tarantella, or dancing madness; however, it is as harmless as a butterfly. In fact, Doctor Comstock, an expert on spiders, believes that no spiders in the Northern states are poisonous to humans.

 

THE CAST OFF OUTER SKELETON OF A WOLF-SPIDER

THE CAST-OFF OUTER SKELETON OF A WOLF SPIDER

(Lycosa punctulata, Hentz)

(Lycosa punctulata, Hentz)

This photograph is of the outer skeleton or shell of a small wolf-spider which I found clinging to the focusing cloth of my camera after it had been lying on the grass.

This photo shows the outer shell of a small wolf spider that I found stuck to the focusing cloth of my camera after it had been resting on the grass.

With us the bony skeleton is internal and grows as we grow. With spiders the skeleton is a tough, leathery structure, which cannot change; so that the young, rapidly growing spider soon finds his shell too tight for him, and, like a crab, he bursts his shell and pulls his soft body from each leg and complicated cavity.

With us, the bony skeleton is internal and grows as we do. With spiders, the skeleton is a tough, leathery structure that doesn't change; so the young, rapidly growing spider soon finds its shell too tight and, like a crab, breaks free from its shell and stretches its soft body out from each leg and complex cavity.

This process seems marvelous, but is really comparatively simple when we realize that before the old shell is cast off it is loosened from the new skin by the moulting fluid which is excreted from glands opening through this new skin.

This process seems amazing, but is actually pretty straightforward when we understand that before the old shell is shed, it's loosened from the new skin by the molting fluid that comes from glands opening through this new skin.

After the old skin is loosened it splits along the sides of the body and in front of the eyes, the slit being just above the legs and jaws, and that portion of the old skeleton which had covered the back is lifted off like a lid. The new skin, at first elastic enough to accommodate the increased size of the body, soon becomes hardened like the old, and must in its turn be shed.

After the old skin comes loose, it tears along the sides of the body and in front of the eyes, with the split located just above the legs and jaws. The part of the old shell that covered the back is then removed like a lid. The new skin, initially stretchy enough to fit the growing body, quickly hardens like the old one and will need to be shed as well.

Imagine, if you can, the surprise of a wolf-spider who, in running through the grass, should stumble over his own outgrown skeleton, so like his former self in all its details that he could scarcely fail to recognize it as his own; for even the transparent cornea of the eye is a part of this outer skeleton and is shed with it, as well as the jaws, sensitive spines, and hairs.

Imagine, if you can, the surprise of a wolf spider who, while running through the grass, stumbles over its own old exoskeleton, so similar to its former self in every detail that it can hardly fail to recognize it as its own; for even the clear front part of the eye is part of this outer skeleton and is shed along with it, as well as the jaws, sensitive spines, and hairs.

 

THE SPINY-BELLIED SPIDER WHICH BUILDS NETS ACROSS THE PATH

THE SPINY-BELLIED SPIDER THAT BUILDS WEBS ACROSS THE PATH

(Acrosoma gracile, Walck.)

(Acrosoma gracile, Walck.)

We are accustomed to the dromedary’s hump and the kangaroo’s big tail, but had this creature been as big as either, or were we Lilliputians, its black and white spiny body, shaped at the bottom like an umbrella stand, would attract more attention at the zoo than either of those desert beasts.

We’re used to the dromedary’s hump and the kangaroo’s large tail, but if this creature were as big as either of them, or if we were Lilliputians, its black and white spiny body, shaped like an umbrella stand at the bottom, would grab more attention at the zoo than either of those desert animals.

Its eight long, crab-like legs are made for spinning, and across the openings in the forest it stretches a great net in which to snare its game. On this it sits protected from the birds to whose eyes it looks from above like some bird’s droppings in the web. This one is a female and its mate is said to be much smaller and quite different, with no humps or spines at all and a long narrow body.

Its eight long, crab-like legs are designed for spinning, and it stretches a large net across the openings in the forest to trap its prey. It perches on this net, safe from birds that see it from above as just a bit of droppings in the web. This one is a female, and its mate is said to be much smaller and quite different, lacking humps or spines and having a long, narrow body.

The courtship of spiders is often a dangerous business for the male, and perhaps it is quite as well for him that he is often smaller and more agile than his mate, for if the female is not ready to receive his advances, she is apt to pounce upon him and destroy him.

The courtship of spiders is often a risky endeavor for the male, and maybe it’s a good thing he is usually smaller and more agile than his female counterpart. If she's not ready to accept his advances, she might attack and kill him.

 

THE BIRD-DROPPING SPIDER, A CREATURE WITH PROTECTIVE COLORING

THE BIRD-DROPPING SPIDER, A CREATURE WITH CAMOUFLAGE

(Epeira verrucosa, Hentz)

(Epeira verrucosa, Hentz)

This orb weaver had swung its net across a wood road, and so perfectly did the white patch on its back resemble a bird’s dropping that until my hand touched the net I failed to realize that a living thing was hanging there. There is something strangely fascinating about the compelling force of instinct: a spider hatched in captivity who has never seen a web made, will weave its own in the same delicate and intricate pattern that its mother made, using the different kinds of rope correctly, and spacing each strand with a mathematical precision. Indeed, the web of this untutored little spiderling will be as characteristic of its species as the white spot upon its back. It would be as though a child, cast alone on a desert island, should build a house in all details precisely like its ancestral home.

This orb weaver had spun its web across a dirt road, and the white spot on its back looked so much like a bird's droppings that I didn't realize a living creature was hanging there until my hand touched the web. There’s something oddly captivating about the power of instinct: a spider raised in captivity that has never seen a web built will create its own in the same delicate and intricate pattern as its mother, using different kinds of silk correctly and spacing each strand with mathematical precision. In fact, the web of this untrained little spider will be as distinctive to its species as the white spot on its back. It's like a child, stranded alone on a deserted island, building a house that looks exactly like the one their ancestors lived in.

 

THE AERIAL TRAPPER: THE ORB-WEAVING SPIDER

THE AERIAL TRAPPER: THE ORB-WEAVING SPIDER

(Epeira trivittata, Keys.)

(Epeira trivittata, Keys.)

Hidden behind these eight four-jointed legs of varying lengths, covered with hollow, sensitive bristles, is the spider’s head, with eight eyes, strong jaws, poison fangs, and a pair of palpi, which look like extremely short legs and seem to serve as hands. The hairy body is filled with thousands of eggs and contains also a marvelous reservoir of liquid rope opening into spinnerets on the under side of the body. Some of the tubes or spinnerets make strong and dry filaments and others make sticky ones. The radiating threads of the spider’s web, those which compose the framework, are stiff and dry; the spiral threads, however, which join them together, are coated with a substance which no little flying creature can strike against without running the risk of sticking fast.

Hidden behind these eight legs, each with four joints and varying lengths, covered in hollow, sensitive bristles, is the spider's head. It has eight eyes, strong jaws, venomous fangs, and a pair of palps that look like very short legs and seem to act as hands. The hairy body holds thousands of eggs and also contains an amazing reservoir of liquid silk that opens into spinnerets on the underside. Some of the spinnerets produce strong, dry strands while others create sticky ones. The radiating threads of the spider’s web, which form the framework, are stiff and dry; however, the spiral threads that connect them are coated in a substance that no small flying insect can hit without risking getting stuck.

Before you are up on a summer’s morning this wonderful creature will have manufactured what would be equivalent to two miles of elastic and sticky rope if she were as large as a six-foot man. With the skill of an experienced fish-net maker, she will, in a few hours, construct a net as large as a cartwheel, which like the whale-nets of New Zealand, though they may break with the floundering of the prey, bewilder it and tire it out with struggling.

Before you wake up on a summer morning, this incredible creature will have produced enough elastic and sticky rope to stretch for two miles if she were as big as a six-foot man. With the expertise of a seasoned fishnet maker, she'll construct a net the size of a cartwheel in just a few hours. Like the whale nets of New Zealand, while they may tear apart from the thrashing of the catch, they confuse and exhaust it as it struggles.

The orb-weaver is the aerial trapper among living creatures, stretching its sticky, elastic web across the aerial runway of its prey and waiting with a patience which would drive a fisherman insane.

The orb-weaver is the sky trapper among living creatures, spreading its sticky, flexible web across the airways of its prey and waiting with a patience that would drive a fisherman crazy.

To insects of its own size, the orb-weaver is a hideous, bloodthirsty monster. It sinks its fangs into its struggling prey, injects a poison quite as deadly as that of the rattlesnake, and quickly sucks the blood of its victim.

To insects of its own size, the orb-weaver is a terrifying, bloodthirsty monster. It sinks its fangs into its struggling prey, injects a poison just as deadly as that of a rattlesnake, and swiftly sucks the blood from its victim.

 

ORB-WEAVER FILLED WITH A THOUSAND EGGS WHICH SHE LAYS ALL AT ONCE

ORB-WEAVER LOADED WITH A THOUSAND EGGS THAT SHE LAYS ALL AT ONCE

(Epeira domiciliorum, Hentz)

(Epeira domiciliorum, Hentz)

Atlas with the world on his back, as imagined by the boys of Athens, could not have been more strange than this creature with her distended yellow body.

Atlas, carrying the world on his back as the boys of Athens imagined, couldn't have been stranger than this creature with her swollen yellow body.

Some of her kin have fasting powers almost beyond belief; they have been kept alive in captivity for eighteen months without food.

Some of her relatives have fasting abilities that are almost unbelievable; they've survived in captivity for eighteen months without food.

This species is one of the commonest orb-weavers on the American continent, and its webs, like great cartwheels, are to be found across the pathways in the woods and everywhere in clearings in the wood-lot.

This species is one of the most common orb-weavers in North America, and its webs, resembling huge cartwheels, can be seen spanning the trails in the woods and throughout clearings in forest areas.

She is a tight-rope performer her whole life long and her long, muscular legs seem well fitted to enable her to hang, week after week, from her web, supporting in her much enlarged body a thousand or so eggs, which she will later lay, not one at a time, but all at once. No surprise is sudden enough to catch her unprepared and make her fall from the dizzy heights where she lives, without first being able to attach an anchor line. This she does by rubbing her spinnerets over the surface on which she stands, and by quickly spreading and bringing them together again she makes an attachment disc from which she can reel out her rope and check her fall.

She has been a tightrope performer her entire life, and her long, muscular legs seem perfectly designed to help her hang, week after week, from her web, supporting her much larger body with about a thousand eggs that she will lay all at once, not one by one. No surprise is sudden enough to catch her off guard and make her fall from the high places where she lives without first being able to attach an anchor line. She does this by rubbing her spinnerets against the surface she's on, and by quickly spreading and bringing them back together, she creates an attachment disc from which she can release her rope and control her fall.

The gift of spinning from internal reservoirs, supplied by active secreting cells, is common in the insect world as well as in the world of spiders, for thousands of species of caterpillars make cocoons of silk which they spin as rapidly as any spider makes its web. I doubt if any silk-gowned lady ever stops to think how many thousand gorgeous moths have been cut short in their careers in order that the threads which the silkworms have thrown around them to make a nest in which to pupate could be reeled off to make the silken stuff she wears.

The ability to spin from internal sources, produced by active secreting cells, is common among insects and spiders. Thousands of caterpillar species create silk cocoons just as quickly as any spider spins its web. I wonder if any silk-dressed woman ever considers how many beautiful moths have had their lives cut short so that the threads the silkworms use to create their pupation nests can be harvested to make the silk she wears.

 

A SPIDER FROM A FLY’S POINT OF VIEW

A SPIDER FROM A FLY’S POINT OF VIEW

(Dolomedes tenebrosus, Hentz)

(Dolomedes tenebrosus, Hentz)

A spider from the fly’s point of view is a terrible monster, indeed. Its claws of polished chitin, sharp as sword points, each with an aperture leading to a sac filled with deadly poison, its array of eyes of different sizes, its mottled, hairy skin covered with hollow sensitive bristles, and its powerful, leg-like palpi must strike terror to the heart of any fly or cockroach which may happen in its neighborhood.

A spider, from a fly's perspective, is truly a terrifying monster. Its polished chitin claws, sharp as swords, each have an opening that leads to a sac filled with deadly venom. With its variety of eye sizes, mottled hairy skin covered in sensitive hollow bristles, and strong, leg-like palps, it must instill fear in the hearts of any fly or cockroach that comes into its area.

Civilized man rarely sees the ferocity of wild beasts displayed, for even in the jungle it is hard to observe. To anyone, however, who will watch a spider devour a fly, the true picture of merciless cruelty will be apparent. With its poisoned sword-like fangs it kills its prey, and then, with its sucking mouthparts, it sucks the juice out of the carcass.

Civilized people rarely witness the brutality of wild animals in action, as even in the jungle it’s difficult to see. However, anyone who takes the time to watch a spider eat a fly will understand what real merciless cruelty looks like. With its venomous, sword-like fangs, it kills its prey, and then, using its sucking mouthparts, it extracts the juice from the carcass.

 

THE MOTHER SPIDER AND HER NEST: A NURSERY OF LITTLE CANNIBALS

THE MOTHER SPIDER AND HER NEST: A NURSERY OF LITTLE CANNIBALS

This mother belongs to the nursery-web weavers. She wove a silken bag for her eggs and carried it about with her under her body until she found a suitable place to leave it. She had to stand on tiptoes to prevent its dragging—it was so big.

This mother is part of the nursery-web weavers. She made a silk bag for her eggs and carried it with her under her body until she found a good spot to leave it. She had to stand on her tiptoes to keep it from dragging—it was that large.

The photograph shows the spiderlings hatched and running about, hundreds of them, over the fine-spun mass of silk.

The photograph shows the baby spiders that have hatched and are scurrying around, hundreds of them, across the delicate webbing of silk.

In these nurseries the strong eat up the weak.

In these nurseries, the strong overpower the weak.

 

A VAGABOND SPIDER

A roaming spider

(Pardosa milvina, Hentz)

(Pardosa milvina, Hentz)

This is a vagabond of the spider world, building no nest or web, content to use her marvelous silk in the construction only of a sac in which to lay her eggs. This sac she carries about with her until the eggs have hatched and the spiderlings are strong enough to take care of themselves, and then she rips open the sac along a distinct seam on the edge and turns her babies loose to shift for themselves.

This is a wanderer in the spider world, making no nest or web, happy to use her amazing silk only to create a pouch for laying her eggs. She carries this pouch with her until the eggs hatch and the spiderlings are strong enough to fend for themselves. Then, she tears open the pouch along a clear seam on the edge and sets her babies free to survive on their own.

These voracious little cannibals have, however, already learned to forage, as the struggle for existence in many species of spiders begins in the egg sac, and it is only the strongest who emerge. In other words, they eat each other up.

These hungry little cannibals have, however, already figured out how to hunt for food, as the fight for survival in many species of spiders starts in the egg sac, and only the strongest ones make it out. In other words, they eat each other.

They do not grow to be more than half an inch in length, but they are among the most active of all spiders, and in the United States alone there are nearly a score of species of these little soldiers of fortune living nowhere and roaming the damp fields in search of prey.

They only grow to about half an inch long, but they're some of the most active spiders out there. In the United States alone, there are nearly twenty species of these tiny adventurers living in various places and wandering through damp fields in search of prey.

 

THE MALE GRASS SPIDER

The male grass spider

(Agelina nævia, Walck.)

(Agelina nævia, Walck.)

On a summer morning, if you rise with the sun, and if the night has been cool, you will find your lawn covered with most exquisite shimmering gossamer patches, so diaphanous that if you touch them or breathe on them they fade away. These are the webs of the young grass spiders and, if you watch one of them closely, you will see that the tiny spider is waiting below the web in a funnel of woven spider’s silk. It will run out quickly enough if you throw a fly into its net. It is not an orb-weaver and runs over its net instead of climbing along the under side of it as many orb-weavers do.

On a summer morning, if you wake up with the sun, and if the night was cool, you'll find your lawn covered with beautiful shimmering gossamer patches, so delicate that if you touch them or breathe on them, they disappear. These are the webs of young grass spiders, and if you watch one closely, you'll see the tiny spider waiting below the web in a funnel made of spider silk. It will dart out quickly enough if you toss a fly into its net. It's not an orb-weaver and runs across its net instead of climbing underneath it like many orb-weavers do.

That this is the photograph of a mature male is evident from the genital palpi, resembling a pair of short front legs.

That this is a photo of an adult male is clear from the genital palpi, which look like a pair of short front legs.

In the autumn the males and females both desert their webs to wander, for it is not only their mating season but the close of their brief existence. Under a bit of bark the female lays her eggs and waits for death, guarding her progeny till she dies, although she has no hope of seeing them alive.

In the fall, both male and female spiders leave their webs to roam around, as it’s not just mating season but also the end of their short lives. The female lays her eggs under a piece of bark and waits for death, protecting her offspring until she dies, even though she has no hope of seeing them grow up.

How, by what marvelous machinery, do these microscopic eggs beneath the bark inherit, not only the color and the form but the knowledge of web building which their dead parents possessed? Is there not something wrong in our idea of the individual as a separate thing rather than as a transitory part of a living network which has been in existence perhaps a million years, alternating in its form, now as a moving hairy-legged thing, and now as a round immobile egg?

How do these tiny eggs under the bark inherit not just their color and shape, but also the skills of web-building from their deceased parents? Isn't there something off in thinking of individuals as completely separate entities instead of as temporary parts of a living network that may have existed for maybe a million years, shifting in its form, sometimes as a moving creature with hairy legs and sometimes as a stationary round egg?

 

THE CRAB SPIDER THAT LURKS AROUND THE NECTARIES OF FLOWERS

THE CRAB SPIDER THAT HIDES AROUND THE NECTAR OF FLOWERS

(Xysticus gulosus, Keys.)

(Xysticus gulosus, Keys.)

Like the beasts of prey which lurk around the water holes of African deserts, waiting for the feebler game to come down to drink, the crab spiders conceal themselves around the nectar-bearing discs of flowers. These nectar cups are the feeding places of thousands of sucking creatures, and the tragedies which take place in the shadows of the rose or lily petals are things we do not like to think of, for they are quite as real, quite as horrible and bloody struggles as those upon a larger scale, the very thought of which makes our blood run cold.

Like the predatory animals that hide near waterholes in the African deserts, waiting for weaker animals to come down for a drink, crab spiders hide around the nectar-rich flowers. These nectar-filled flowers attract countless sucking creatures, and the sad events that unfold in the shadows of rose or lily petals are hard to consider, as they are just as real and just as horrifying and bloody as larger-scale struggles that make our blood run cold.

The crab spiders cannot run forward but dart sidewise and backward at great speed. One cannot help wondering if this ability may not often be an advantage rather than a drawback and enable the creature to surprise its prey by turning its back on it, something as a left-handed man often surprises an antagonist.

The crab spiders can't run forward but can quickly dart sideways and backward. One can't help but wonder if this ability might often be an advantage instead of a disadvantage, allowing the creature to catch its prey off guard by turning its back on it, similar to how a left-handed person can surprise their opponent.

That these spiders run their own grave risks in this life around the nectar “water holes” is evident, for they form a large proportion of the food of mud wasps and if you want a handful of them, tear down a few mud daubers’ nests sometime in June and empty out their contents. The brilliant colors will surprise you and suggest that possibly the yellow ones haunt the yellow flowers and the blue the blue ones.

That these spiders face serious dangers in their lives around the nectar “water holes” is clear, as they make up a significant part of the diet of mud wasps. If you want to collect some, just take down a few mud dauber nests in June and dump out what’s inside. The bright colors will amaze you and make you think that maybe the yellow ones are drawn to yellow flowers and the blue ones to blue flowers.

The particular species whose low, sprawling form is shown in the photograph is one of forty occurring in the United States and, although it is only from a fourth to a third of an inch long, is considered one of the large species. It is dull-colored, and, unlike its gaily-colored relatives, awaits its prey under bark and stones.

The specific species shown in the photograph has a low, sprawling shape and is one of forty found in the United States. Even though it measures only about a fourth to a third of an inch long, it's considered one of the larger species. It has a dull color and, unlike its brightly colored relatives, hides under bark and stones to ambush its prey.

It spins no web and the small male leads a thoroughly vagabond life, whereas the female, in most species at least, settles down toward the end of her life and, after depositing her silken lens-shaped sac of eggs in some protected spot, she lingers near as if to guard it till she dies.

It doesn't create a web, and the small male lives a completely wandering life, while the female, in most species at least, settles down later in life and, after laying her silken, lens-shaped egg sac in a safe place, stays close by as if to protect it until she dies.

 

A FRONT VIEW OF A MATURE MALE SPIDER

A FRONT VIEW OF A FULLY GROWN MALE SPIDER

The reason for existence is so perplexing that it is no wonder we fall back on mysticism whenever we try to explain it.

The reason for existence is so confusing that it's no surprise we turn to mysticism whenever we try to make sense of it.

Inexplicable as it seems when we consider our own lot as humans, the mystery is no less great when we try to view existence from the standpoint of a male spider.

Inexplicable as it seems when we think about our own situation as humans, the mystery is just as significant when we try to look at existence from the perspective of a male spider.

Is it not probable that we cling so dearly to the idea of our own existence as individuals that we forget we are only halves of a whole, and that the whole itself is only a fraction of that vague living something spread out over the earth, moving in millions of places at once which we call a living species?

Isn’t it likely that we hold onto the idea of our individual existence so tightly that we forget we’re just parts of a whole, and that this whole is just a small piece of that unclear living entity spread across the Earth, moving in millions of places at the same time, which we refer to as a living species?

When we shall have shifted our sympathies and made them cover a thousand generations of beings, we shall have risen to the point of view that a divinity must take.

When we have expanded our empathy to include thousands of generations of beings, we will have reached the perspective that a deity must possess.

The enigmas of existence, I venture to say, will only be understood from this standpoint and not from the more sympathetic one of regret over the shortness, cruelty or barrenness of any individual’s life.

The mysteries of life, I believe, will only be understood from this perspective and not from the more empathetic view of lamenting the brevity, harshness, or emptiness of anyone's life.

The male spider seems peculiarly to be just a tool in the machinery of descent, merely a carrier of the male germ cells which, whenever, and not before, they come in contact with their female counterparts, start into activity the marvelous growth which results in new individuals similar to itself.

The male spider appears to be just a tool in the process of reproduction, simply a carrier of the male germ cells that only come to life when they come into contact with their female counterparts, triggering the remarkable growth that leads to new individuals resembling itself.

These male cells which form within its body, mature, and are ejected as living, ciliated things into a web of special make; and two special syringes formed late in life at the tips of the leg-like palpi draw them up and hold them stored until it is time for them to be injected during the mating process into special sacs within the female, where they fuse in some strange way with female cells and start the following generation.

These male cells that develop inside its body mature and are released as living, ciliated entities into a specially designed web; two unique syringes that form later in life at the tips of the leg-like palpi draw them up and store them until it's time to inject them into specific sacs within the female during mating. There, they merge in some unusual way with female cells to kick off the next generation.

His palpi once emptied of these male cells, of what further use to the species can he be and why should not the carnivorous female promptly eat him up?

His palpi, once cleared of these male cells, what further purpose does he serve for the species, and why shouldn't the carnivorous female just eat him right away?

 

THE DADDY-LONG-LEGS OR HARVESTMAN

The daddy longlegs or harvestman

(Leiobunum grande, Weed)

(Leiobunum grande, Spider)

Who has not watched daddy-long-legs stalk majestically across the floor or up the wall, one long slender leg waving in front of him like the arm of some gesticulating prophet of old? Indeed, the fly or mosquito is hardly more familiar.

Who hasn't seen a daddy-long-legs elegantly walk across the floor or climb up the wall, one long, slender leg moving in front like the arm of some ancient, animated prophet? In fact, flies and mosquitoes are hardly more common.

Long-leggedness is all relative to size of body, and viewed from this standpoint everyone must agree that the harvestman is the longest-legged creature in the world. If its body were the size of a flamingo its legs would cover over thirty feet of ground. As it has eight legs and each leg is eight times the length of its body it has sixty-four times as much length of leg as of body.

Long legs are all relative to body size, and from this perspective, everyone has to agree that the harvestman is the longest-legged creature in the world. If its body were the size of a flamingo, its legs would stretch over thirty feet. Since it has eight legs and each leg is eight times the length of its body, it has sixty-four times more leg length than body length.

It is a strange, spider creature having only two eyes which look to right and left from a turret-like hump in the middle of its back. Its claws in front have pincers like a crab’s. Opposite the first pair of legs are scent glands from which it pours out a fluid which has so bad an odor that it seems to protect it from its foes.

It’s a weird, spider-like creature with just two eyes that look to the right and left from a turret-like hump on its back. Its front claws have pincers like a crab’s. Across from the first pair of legs are scent glands that release a fluid with such a terrible smell that it seems to keep its enemies away.

Swung low between its legs, this creature of twilight and shade wanders in search of small insects which it catches and devours as other spiders do. It only lives one season in the North and spins no web and makes no nest. The female lays her eggs deep down in the ground or under stones or in the crevices of the bark of trees.

Swung low between its legs, this creature of dusk and shadow roams around looking for small insects that it catches and eats like other spiders. It only lives for one season in the North and doesn't spin webs or build nests. The female lays her eggs deep in the ground, under stones, or in the crevices of tree bark.

 

 


Chapter 2
THE INSECT WORLD

STRAIGHT-WINGED INSECTS

STRATEGIC WINGED INSECTS

(Orthoptera)

(Orthoptera)

When children play with pebbles on the beach, they often put the red ones in one group, the white ones in another. It is much the same with men, they try to put the things that are alike together, and in the bewildering multitude of shapes and forms and habits with which the insect specialists have had to deal, they catch at any similarity, and put together in one group a lot of creatures which are only alike in a few particulars.

When kids play with pebbles on the beach, they usually separate the red ones into one pile and the white ones into another. It's similar with people; they try to group things that are alike. In the confusing variety of shapes, forms, and behaviors that insect experts encounter, they latch onto any similarities and lump together a bunch of creatures that only share a few features.

In the straight-winged order of orthoptera they have put the creatures which have four wings, the front pair being leather-like and smaller than the other pair, which latter fold up like a fan. They are also all equipped with strong biting jaws. Bugs often look like them, but bugs have beaks and never jaws.

In the straight-winged group of orthoptera, they've classified the creatures that have four wings, with the front pair being leathery and smaller than the back pair, which they fold up like a fan. They all have powerful biting jaws. Bugs can resemble them, but bugs have beaks instead of jaws.

It is in this order that are found nearly all of the true song insects, at least so far as human ears can tell. The grasshoppers, the katydids and crickets are the great music makers of the insect world, although it is true that there is one, perhaps the loudest, shrillest singer of them all which is classified among the bugs, the lyreman, or cicada, one of the species of which is known as the seventeen-year locust.

It is in this order that you'll find almost all of the true singing insects, at least as far as human ears can hear. Grasshoppers, katydids, and crickets are the main music makers in the insect world, although it's true that there is one, possibly the loudest and shrillest singer of them all, that is classified among the bugs: the lyreman, or cicada, one type of which is known as the seventeen-year locust.

When we talk of the hum of insects we do not often stop to think that it is quite a different thing in general from their song. Most insects in their flight, providing that their wings move fast enough, make some kind of a noise. The humming of the bee, the buzzing of the house fly and mosquito and the whirring of the clumsy beetle’s wings are quite a different thing from the conscious song of the katydid to its mate, or the singing of the cricket on the hearth.

When we mention the buzz of insects, we don't usually pause to realize that it's quite different from their song. Most flying insects, as long as their wings are moving quickly enough, make some sort of noise. The hum of a bee, the buzz of a housefly and a mosquito, and the whirring of a clumsy beetle's wings are all quite different from the deliberate song of a katydid to its partner, or the chirping of a cricket by the fire.

Of course it is impossible for us to be quite sure that there is not a host of insects who have means of making some kind of a noise which is so high up in the scale of noises as to be too faint for us to hear.

Of course, it's impossible for us to be completely sure that there aren't a bunch of insects out there that make some kind of noise that's so high-pitched we can't hear it.

 

THE KING GRASSHOPPER

THE KING CRICKET

(Hippiscus sp.)

(Hibiscus)

As this young king grasshopper stands looking so inquiringly at one with his varicolored eyes, each of which is composed of hundreds of facets, I cannot help thinking that he represents a creature quite as fascinating and actually more dangerous than the East African monsters of our school geographies.

As this young grasshopper king stands there, looking curiously at someone with his multicolored eyes, each made up of hundreds of tiny parts, I can't help but think that he embodies a creature just as intriguing and actually more perilous than the East African beasts we learned about in school.

Perhaps it is perfectly natural, but it does not seem right, that so little emphasis should be laid in our histories upon the terrible struggles of man with his insect enemies. The time will come when we shall recognize this warfare, when we shall realize how much of human happiness lies buried on the battlefields of our struggle against the insect hordes.

Perhaps it’s completely natural, but it feels off that so little focus is placed in our histories on the terrible battles humans have fought against their insect enemies. The day will come when we’ll acknowledge this conflict, when we’ll understand how much human happiness is lost on the battlefields of our fight against the insect swarms.

The members of one species of this great family can sail for a thousand miles before the wind, and they go in such numbers that they make a cloud 2,000 square miles in extent.

The members of one species of this great family can travel for a thousand miles with the wind at their backs, and they do so in such large numbers that they create a cloud covering 2,000 square miles.

They multiply in such numbers as to baffle all calculation, and every living green thing for thousands of square miles disappears down their throats, leaving the country they infest desolate. The great famine of Egypt, mentioned in the book of Exodus, the grasshopper years of Kansas, which ruined thousands of families on our plains, and more recent devastations in Argentina and South Africa are examples of the tremendous effects which the migratory locusts have had upon the happiness of mankind.

They multiply in such large numbers that it defies all calculations, and every living green thing for thousands of square miles is consumed, leaving the areas they invade desolate. The great famine in Egypt, mentioned in the book of Exodus, the grasshopper years in Kansas that devastated thousands of families on our plains, and more recent disasters in Argentina and South Africa are examples of the significant impact that migratory locusts have had on human well-being.

The famines which have followed in their wake have cost the lives of hundreds of thousands of human beings and ruined the lives of millions of others. We have become so accustomed to the idea that the farmer must expect to lose his crop every few years from the devastations of these beasts, that we have not yet realized that it would be profitable to spend vast sums of money in learning how to fight them.

The famines that have followed have claimed the lives of hundreds of thousands of people and devastated the lives of millions more. We have gotten so used to the idea that farmers should expect to lose their crops every few years due to these pests that we haven't yet recognized that it would be wise to invest significant amounts of money in finding ways to combat them.

In the evolution of the race, this change will come about, and I feel that no honor is too great to bestow upon the American entomologists who have led the world in its fight with these enemies of the human race. Some day these quiet, resourceful, far-sighted men of knowledge will take their places beside the organizers of industry and the warriors of mankind in the hero worship of our boys and girls.

In the evolution of our society, this change will happen, and I believe that no recognition is too great for the American entomologists who have led the fight against these threats to humanity. One day, these quiet, resourceful, and forward-thinking experts will be celebrated alongside the pioneers of industry and the heroes of humanity in the admiration of our young people.

 

A BABY GRASSHOPPER

A baby grasshopper

A baby creature, scarcely two weeks since it issued from a grasshopper egg, and yet with two moults behind it—two bright green baby skins cast off!

A baby creature, barely two weeks old since it hatched from a grasshopper egg, and already having shed its skin twice—two vibrant green baby skins discarded!

Imagine looking forward, as this baby creature does, to the day when its internal air sacs shall be filled with air and the pads on its back have grown so long and parchment-like that it can leave its hopping, terrestrial existence and sail away across the fields. Until that time, however, it must be content with its six spiny legs, pushing its way among the blades of grass, tasting everything green and eating what it likes, and hiding from its enemies when moulting time comes round.

Imagine looking ahead, like this baby creature does, to the day when its internal air sacs will be filled with air and the pads on its back grow long and parchment-like, allowing it to leave its hopping, land-based life and glide across the fields. Until then, though, it has to be satisfied with its six spiny legs, pushing its way through the blades of grass, tasting everything green, eating what it enjoys, and hiding from its predators when it’s time to shed its skin.

A young chick finds itself shut inside the eggshell and must work its way out alone, but the young grasshoppers when they hatch out find themselves—the whole nestful—shut in a hardened case in the ground made by their mother, and it takes half a dozen of them working together to dislodge the lid which shuts them in.

A young chick is trapped inside its eggshell and has to figure out how to get out by itself, while the baby grasshoppers, when they hatch, discover that they’re all stuck in a hard case in the ground built by their mother. It takes about six of them working together to lift the lid that keeps them inside.

Unlike the beetles and the butterflies, which spring full-fledged from the metamorphosis of a caterpillar, the grasshopper comes to be a winged creature by slow stages, each one a little more advanced than the former, with wings a little better developed. The baby grasshopper is essentially a small, wingless adult, and not a grub or larva in the ordinary sense.

Unlike beetles and butterflies, which emerge fully formed from the transformation of a caterpillar, the grasshopper evolves into a winged creature through gradual stages, each one more advanced than the last, with wings that become better developed over time. The baby grasshopper is basically a small, wingless version of an adult, rather than a grub or larva in the typical sense.

 

A YOUNG GRASSHOPPER’S SKELETON

A young grasshopper's exoskeleton

When the young grasshopper emerges from the egg, it is very small indeed—a wingless, helpless little creature, all legs and mouth.

When the young grasshopper hatches from the egg, it is very small—a wingless, helpless little creature, just legs and a mouth.

It passes through successive ages, or stages, as they are called, each one of which is separated from the other by a moult or casting of its outer shell.

It goes through different ages, or stages, as they're called, each one separated from the next by shedding its outer shell.

These moults take place at fixed periods, and as the insect finds itself restrained by its firm, inelastic skeleton, a longitudinal rent occurs along the back, and the insect, soft and dangerously helpless, struggles out of the old skin, inclosed in a new but delicate cuticle, which takes some time to harden and color up.

These molts happen at specific times, and as the insect realizes it’s trapped by its hard, rigid exoskeleton, a tear forms along its back. The insect, soft and vulnerable, struggles to get out of the old skin, now covered by a new but fragile cuticle that takes a while to harden and gain color.

Some people go to great trouble and expense to keep the baby portraits and even the baby shoes, and I cannot help wondering whether a full-grown grasshopper, leading a life in the open air, is ever interested in observing the baby skeletons which show its five stages of terrestrial life.

Some people go to a lot of trouble and spend a lot of money to keep baby pictures and even baby shoes, and I can’t help but wonder if a full-grown grasshopper, living life outdoors, ever cares about looking at the baby skeletons that show its five stages of life on land.

What an interesting collection could be made of these insects’ skeletons, photographed large enough so that we could see and study them!

What an interesting collection we could create with these insects’ skeletons, photographed in a size that lets us see and study them!

 

THE GRASSHOPPER IS GOOD TO EAT

THE GRASSHOPPER IS GOOD TO EAT

How much mere prejudice controls us! Whence came our aversion to the spotless, winged grasshopper as food and our fondness for the flesh of the wallowing swine? We thoughtlessly pass on to our children the idea that certain things are not good to eat while others are, and so, although the grasshopper has been eaten for centuries by millions of people, even by the ancient Assyrians, and is today one of the candied delicacies of Japan, our American boys, hungry as they always are, have not yet caught them to cook over their campfires.

How much simple prejudice controls us! Where does our dislike of the clean, winged grasshopper as food come from, and why do we favor the meat of the filthy pig? We carelessly pass on to our children the belief that certain things are off-limits for eating while others are acceptable. So, even though grasshoppers have been consumed for centuries by millions, including the ancient Assyrians, and are currently a popular treat in Japan, our American boys, always hungry, still haven't caught them to cook over their campfires.

The spiny legs deter us, perhaps, and yet, when one thinks that we eat up all of the soft-shelled crabs, sardines, reed birds and some other delicacies, that seems to be no argument at all against the pasture fed and fattened locust of our summer time.

The spiny legs might put us off, but when you consider that we consume all the soft-shelled crabs, sardines, reed birds, and other delicacies, that hardly seems like a valid reason not to enjoy the pasture-fed and plump locusts of summer.

In Barbary, according to Miss Margaret Morley, the recipe in common use is to boil them for half an hour, remove the heads and wings and legs, sprinkle with salt and then fry them and season with vinegar to taste.

In Barbary, according to Miss Margaret Morley, the usual recipe is to boil them for half an hour, take off the heads, wings, and legs, sprinkle with salt, then fry them and season with vinegar to taste.

The Maoris of New Zealand, it is said, prefer them to the pigeons which they raise.

The Māori of New Zealand, it is said, prefer them over the pigeons that they raise.

The Bedouins bake then in a heated pit in the ground, much as a woodsman cooks his beans, and later dries them in the sun, then grinds them to powder and makes a kind of gruel, or else he eats them without grinding, simply removing the legs and wings with his fingers as one would the shell of a shrimp.

The Bedouins bake them in a heated pit in the ground, similar to how a woodsman cooks his beans, and later dries them in the sun. Then they grind them into powder to make a kind of gruel, or they eat them without grinding, just taking off the legs and wings with their fingers like you would peel a shrimp.

Some people say they taste like the yolk of a hard-boiled egg, while others compare them in flavor to prawns.

Some people say they taste like the yolk of a hard-boiled egg, while others compare their flavor to shrimp.

Now, whether all the different kinds are good or not, and which are best to eat are questions which the American boys most find out for themselves—the girls, it is assumed, will take no part in this new field of cookery!

Now, whether all the different kinds are good or not, and which are best to eat are questions that American boys will mostly have to figure out for themselves—the girls are expected to have no role in this new area of cooking!

Should any boy desire to dip into this vast subject and become an acridophagus it would take him back in his study to the hieroglyphics on some of the oldest monuments of the human race and be a most fascinating subject.

Should any boy want to explore this vast topic and become an acridophagus, it would lead him back in his studies to the hieroglyphics on some of the oldest monuments of humanity and be a truly fascinating subject.

 

A GRASSHOPPER’S EAR IS UNDER ITS WING

A grasshopper's ear is located under its wing

(Dissosteira carolina, Linn.)

(Dissosteira carolina, Linnaeus)

If you raise the wing of a full-grown grasshopper and look behind its big fat thigh, you will see a strange hole into its body. This is supposed to be its ear, but what it hears and what it does not hear, who can tell?

If you lift the wing of a full-grown grasshopper and look behind its big, thick thigh, you'll find a weird hole into its body. This is thought to be its ear, but what it hears and what it doesn’t hear, who can say?

When on a warm summer day you hear a male grasshopper chirping, for the males alone can sing, you can think that somewhere nearby, perhaps with wings lifted to hear the song better, sits some attentive female whose ears are tuned to catch the plaintiveness of this courting song.

When you hear a male grasshopper chirping on a warm summer day, since only the males sing, you can imagine that nearby, maybe with its wings raised to listen more closely, there's a female paying attention, her ears tuned in to the emotional sounds of this courtship song.

 

THE GRASSHOPPER’S HEARING ORGAN

THE GRASSHOPPER'S EAR

(Dissosteira carolina, Linn.)

(Dissosteira carolina, Linnaeus)

As we grow older and certain sounds which we heard in childhood with the greatest ease become harder for us to hear and are finally lost to as altogether, we begin to appreciate the relative character of sound. Some boys can hear the faintest twitter of the shyest song bird in the tree tops, while others strain their ears in vain to catch its note.

As we get older, the sounds we easily heard in childhood become harder to hear and are eventually lost to us completely. We start to understand that sound is relative. Some kids can hear the faintest chirp of the shyest songbird in the treetops, while others struggle to catch even a hint of its song.

Is it any wonder then that men should be puzzled to know just what the true grasshopper hears? They know there are males of certain species which sing so loud they make our ears ache, but there are others whose noises, if they make any, have never yet been heard by human ears, and yet they all have these ears. They believe, too, that there are certain sounds the grasshopper can hear without the use of these special ears.

Is it any surprise that men are confused about what the true grasshopper hears? They know there are male grasshoppers of some species that sing so loudly it hurts our ears, but there are others whose sounds, if they make any, have never been heard by humans, and yet they all have these ears. They also believe that there are certain sounds the grasshopper can hear without using these special ears.

So whether this strange organ furnishes a special means by which the males and females find each other or not, and what part it has played throughout the centuries in the development of this marvelous form of living matter, are things that man may be a long time yet in finding out.

So whether this strange organ provides a unique way for males and females to find each other or not, and what role it has played over the centuries in the development of this amazing form of living matter, are things that humanity might take a long time to figure out.

In the photograph it lies to the left, a dark kidney-shaped opening with the ear drum membrane at an angle just inside its rim. It has a well-formed tympanum, and nerves and muscles of a complex nature.

In the photograph, it’s positioned to the left, a dark, kidney-shaped opening with the eardrum membrane angled just inside its edge. It features a well-formed tympanum, along with complex muscles and nerves.

 

THE SHORT-WINGED GREEN LOCUST

THE SHORT-WINGED GREEN GRASSHOPPER

(Dicromorpha viridis, Scudd.)

(Dicromorpha viridis, Scudd.)

Whether this creature has a personality or not may be forever extremely difficult for humans to decide. Its eyes that look like cows’ eyes really cast hundreds of images on a special kind of brain, so different from our own that we cannot understand it, and then, besides these great big eyes, it has three others scarcely visible in the picture. Its short-ringed horns are not horns at all, but sense organs of so complicated a nature that we do not yet know certainly whether they are organs of smell or not, and it is supposed that they may be the seat of sense organs that we humans do not have.

Whether this creature has a personality or not might always be incredibly tough for humans to figure out. Its eyes, which resemble cows' eyes, really project hundreds of images onto a type of brain so different from ours that we can’t comprehend it. On top of its large eyes, it has three additional ones that are hardly noticeable in the picture. Its short, ringed horns aren't actually horns; they're sensory organs so complex that we still don’t know for sure if they function as smell organs, and it's believed that they might contain sensory organs that we humans don’t possess.

The jumping legs of the creature are filled with powerful muscles, which, when they expand, can hurl it through the air and enable it to escape from its enemies. On the inner side of the femur is a musical instrument, a row of hard, bead-like projections, which are very highly developed in the males, but not at all in the females. When one of the veins of the upper wing, which is prominent and has a sharp knife edge, is scraped over these projections, a musical sound is made by the vibration of the whole wing. It would seem to be the case, as with so many of the birds, that only the male can sing, the female being mute.

The legs of the creature are packed with strong muscles that can launch it into the air, allowing it to escape from predators. On the inner side of the femur, there's a musical feature— a line of hard, bead-like bumps that are very well developed in males but not present in females. When one of the upper wing veins, which is prominent and has a sharp edge, is rubbed against these bumps, it produces a musical sound through the vibration of the entire wing. It appears that, similar to many birds, only the male is able to produce sound, while the female remains silent.

 

THE KATYDID

The Katydid

(Scudderia sp.)

(Scudderia sp.)

How marvelously equipped such a creature as this is to live! The great eyes, with many facets, enable it to see by night as well as by day. Its long, slender antennæ catch the faintest odor, and probably are sensitive to a host of perfumes that we do not know. In the front of each fore leg, just below the knee, is a dark, sunken area, the ear, with which it can probably hear sounds too faint for our ears, and by moving them can tell from which direction the sounds come. Its long muscular legs enable it to jump a hundred times its length whereas man can scarcely cover three times his length at a leap. Its wings not only enable it to fly well, but in the males are provided with an apparatus near their base for making a musical sound.

How incredibly equipped this creature is for survival! Its large, multi-faceted eyes allow it to see both at night and during the day. Its long, slender antennae pick up the faintest scents, and they're likely sensitive to a range of fragrances we can't even imagine. At the front of each foreleg, just below the knee, is a dark, recessed area that acts like an ear, enabling it to hear sounds that are too faint for us, and by moving them, it can determine the direction from which the sounds come. Its long, powerful legs allow it to jump a hundred times its length, while humans can barely jump three times theirs. Its wings not only let it fly well, but in males, there's a structure near the base that produces a musical sound.

This sound is made by half opening the long green wings and closing them again rapidly.

This sound is produced by partially opening the long green wings and then quickly closing them again.

The left wing bears a file on its inner surface near the base, while the other, the right wing, has a sharp knife edge on the outside just below the file on the left wing. In closing the wings together the knife edge scrapes across the file and makes at least one of the wings vibrate. While the wings are opening no sound is produced; as they close the characteristic sounds so like the words “Katy did” are made.

The left wing has a file on its inner surface near the base, while the right wing has a sharp knife edge on the outside just below the file on the left wing. When the wings close together, the knife edge rubs against the file, causing at least one of the wings to vibrate. No sound is made while the wings are opening; but as they close, they produce characteristic sounds that resemble the words “Katy did.”

 

THE NARROW-WINGED KATYDID

The Narrow-Winged Katydid

(Scudderia sp.)

(Scudderia sp.)

If it is any comfort for sleepless ones to know it, the katydid is one of the noisiest creatures of its size in the world. It is only the males which call their “Katy-did, Katy-didn’t, she did, she didn’t,” and they are calling to their mates.

If it helps the sleepless at all, the katydid is one of the noisiest creatures of its size in the world. Only the males make the call “Katy-did, Katy-didn’t, she did, she didn’t,” and they do this to attract their mates.

There are people who prefer the noises of the street-cars to the noises of Nature, and who complain that the buzz of insect life on a summer evening makes them feel lonesome and unhappy, but to me half the mystery and charm of tropical life lies in the music of the night insects. Our southern states, with their tropical summers, have a wealth of insect life quite comparable to that of the tropics and vastly more varied than that of northern Europe.

There are people who prefer the sounds of streetcars to the sounds of nature, and who complain that the buzzing of insects on a summer evening makes them feel lonely and unhappy, but to me, half the mystery and charm of tropical life comes from the music of the night insects. Our southern states, with their tropical summers, have a wealth of insect life that's quite comparable to that of the tropics and much more varied than that of northern Europe.

The katydid is the greatest songster of this night choir and is a truly American species—as truly a thing to be proud of as the mocking-bird.

The katydid is the best singer of this nighttime choir and is a genuinely American species—just as much a source of pride as the mockingbird.

Lafcadio Hearn in his “Kusa Hibari” has put us in touch with the soul of a Japanese katydid, and if ours did not have quite so shrill a voice we too might domesticate him, but the idea of caging an American katydid as the Japanese do their tiny-voiced creatures will not, I fear, appeal to the average American citizen.

Lafcadio Hearn in his “Kusa Hibari” has connected us with the spirit of a Japanese katydid, and if ours didn’t have such a loud voice, we might also take one in as a pet. However, the thought of keeping an American katydid in a cage like the Japanese do with their small-voiced insects probably won’t sit well with the typical American.

The male of this species sings sometimes by day as well as by night and has different calls for day and night.

The male of this species sings both during the day and at night and has different calls for each time.

The female lays her eggs in the edges of leaves, thrusting them in between the lower and upper cuticle, and from these hatch out the wingless, long-legged green creatures which are hopping everywhere about the grass in early summer.

The female lays her eggs on the edges of leaves, pushing them between the top and bottom layers, and from these hatch the wingless, long-legged green creatures that are hopping around in the grass in early summer.

They are borne for the summer season only, and with the frosts of winter they all die off. Nature seems to make just as complicated a being whether it is to last a score of minutes or a hundred years—one season or a hundred is all the same to her.

They only exist for the summer season, and with the winter frosts, they all die off. Nature appears to create complex beings whether they last a few minutes or a hundred years—one season or a hundred makes no difference to her.

Just why the katydid should want to hear its own song some city people may wonder, but it is evident that he does, for just below each knee, on his foremost legs, is to be found a well-developed ear with a tympanum which probably vibrates much as ours do.

Just why the katydid wants to hear its own song might puzzle some city folks, but it's clear that it does, because right below each knee, on its front legs, there's a well-developed ear with a tympanum that probably vibrates much like ours do.

 

A YOUNG KATYDID

A baby katydid

(Scudderia sp.)

(Scudderia species)

It is doubtful if there are any animals so largely legs as the young katydid. It cannot fly yet, for the wings upon its back are still too small to carry it through the air, but it can escape from its enemies by jumps which put those of a gazelle or a kangaroo to shame. The muscles in its legs are like our own muscles so far as can be determined, except that they are attached to projections on the inside of a skeleton which encases them all, instead of being attached to the outside of a skeleton which they themselves encase, so when a katydid jumps one cannot see the muscles move as one can those of a horse.

It’s questionable if there are any animals with legs as large as a young katydid. It can’t fly yet because the wings on its back are still too small to lift it into the air, but it can escape from predators with jumps that would put a gazelle or a kangaroo to shame. The muscles in its legs are similar to our own, at least as far as we can tell, except they are connected to projections on the inside of a skeleton that encases them, rather than being attached to the outside of a skeleton that they themselves encase. So, when a katydid jumps, you can’t see its muscles move like you can with a horse.

 

THE CRICKET ON THE HEARTH

The Cricket on the Hearth

(Gryllus pennsylvanicus, Burm.)

(Gryllus pennsylvanicus, Burm.)

Through the ages, who knows if not from the times of the cave-dwellers, this friendly visitor of the fireside has rubbed his rough wings together over his head and sung man to sleep. The European form seems quite as domesticated as the cat or dog, leading nowhere a truly wild life, and it may be questioned whether any living creature has become more a part of human life than the cricket on the hearth.

Through the ages, who knows if not from the times of the cave dwellers, this friendly visitor by the fireside has rubbed his rough wings together over his head and sung people to sleep. The European version seems just as domesticated as a cat or dog, leading a life that isn’t truly wild, and it can be questioned whether any living creature has become more a part of human life than the cricket on the hearth.

The carrying power of their song is extraordinary; there are species whose strident notes can be heard for a mile, although their little bodies are scarcely more than an inch in length. The males alone are musical, and it is reasonable to suppose, since the females have ears in their fore legs, that they are singing to their mates and not to mankind.

The power of their song is amazing; some species have such loud calls that they can be heard from a mile away, even though their tiny bodies are barely an inch long. Only the males sing, and it makes sense to think that, since the females have ears in their front legs, they are singing to attract their mates, not to humans.

As one listens to their friendly song it is hard to appreciate what fighters they are among themselves, the larger ones even turning cannibals when food is scarce, although a glance at the photograph shows how well equipped they are for battle. Their great black eyes, only shinier black than their coal-black armored necks, their jointed palpi with which they feed themselves, their thick, leathery wings pressed against their sides like a box cover, and their strong, muscular, spiny hind legs, with which they jump a hundred times their own length, do none of them contribute to beauty, though quite in keeping with their armored war-horse appearance.

As you listen to their cheerful song, it’s hard to see how they fight fiercely among themselves, with the bigger ones even resorting to cannibalism when food is scarce. A look at the photograph reveals how well-armed they are for battle. Their large black eyes, shinier than their coal-black armored necks, their jointed palps that they use to feed, their thick, leathery wings pressed against their bodies like a lid, and their strong, muscular, spiny hind legs that can leap a hundred times their own length, none of these features contribute to beauty, but they definitely fit their armored war-horse look.

Two long, flexible circi protrude like tails behind, but the task of finding out what they are for has been too difficult for man. Perhaps the strange nerve-ending hairs which they bristle with may be sensitive to vibrations of the air, of which we yet know nothing.

Two long, flexible extensions stick out like tails behind, but figuring out their purpose has been too challenging for humans. Maybe the unusual nerve-ending hairs they are covered in are sensitive to air vibrations, which we still don’t fully understand.

 

THE GROUND CRICKET

The Ground Cricket

Unlike its jet black relative of the fireside, the striped ground cricket forages by day on grassy slopes. It is a more omnivorous scavenger than the hyena, for it eats decaying plants as well as animals.

Unlike its jet-black relative from the fireside, the striped ground cricket searches for food during the day on grassy slopes. It's a more omnivorous scavenger than the hyena, as it consumes decaying plants along with animals.

Its big brown eyes, which cover half its head, see, doubtless, many ways at once, and its long, whiplike antennæ, which it waves constantly as it springs through the grass, are believed to scent odors which are inconceivably faint, such as the odor of a blade of grass, a pebble, or a decaying leaf.

Its big brown eyes, which take up half its head, probably see in multiple directions at once, and its long, whip-like antennae, which it constantly waves as it jumps through the grass, are thought to detect incredibly faint smells, like the scent of a blade of grass, a pebble, or a rotting leaf.

 

THE STONE OR CAMEL CRICKET

The Stone or Camel Cricket

(Ceuthophilus uhleri, Scudd.)

(Ceuthophilus uhleri, Scudd.)

It would not be a good idea to let the children think that creatures such as this were prowling round the house at night—that is, unless you assure them that it is only a harmless, tawny yellow stone-cricket from the shady woods, where it generally hides under stones and damp, decaying logs.

It wouldn't be a good idea to let the kids think that creatures like this are lurking around the house at night—unless you reassure them that it's just a harmless, tawny yellow stone-cricket from the shady woods, where it usually hides under rocks and damp, rotting logs.

It seems strangely equipped for its night life, for it has antennæ as long as its body. I cannot help wondering if these help it to jump in the dark. Fabre, the great French entomologist, has tried, as others have, to find out just how the insects use their antennæ and what they are really for. He says at last, “our senses do not represent all the ways by which the animal puts himself in touch with that which is not himself; there are other ways of doing it, perhaps many, not even remotely analogous to those which we ourselves possess.”

It seems oddly equipped for its nightlife, as it has antennae that are as long as its body. I can't help but wonder if these help it jump in the dark. Fabre, the renowned French entomologist, has tried, like many others, to figure out how insects use their antennae and what their true purpose is. He concludes, “Our senses do not capture all the ways an animal connects with things outside itself; there are other ways, perhaps many, that are not even close to those we have.”

 

A MONSTER OF THE UNDERWORLD: THE MOLE CRICKET

A MONSTER OF THE UNDERWORLD: THE MOLE CRICKET

(Gryllotalpa borealis, Burm.)

(Gryllotalpa borealis, Burm.)

The creatures of the air which hide away their eggs that their larvæ may hatch out underneath the ground must reckon with this burrowing beast.

The creatures of the air that hide their eggs so their larvae can hatch underground have to deal with this burrowing animal.

All his life long he tunnels beneath the ground from place to place. When you think of how long it would take you, even with the best tools, to dig a hole in the ground big enough to crawl into, you will get some idea of the power which these two front legs, four-pointed like a spading fork, must have, to enable such a creature to disappear into the ground in a few seconds as he does. These paws, proportionately many times more powerful than bears’ paws, are snippers too, for moving back and forth behind them is a sharp-edged instrument which, like the shuttle-bar on a mowing machine, shears off the grass roots which interfere with the mole cricket’s progress through the ground. The poor defenseless angleworms must fall an easy prey to such a foe as this!

All his life, he digs tunnels underground from place to place. If you consider how long it would take you, even with the best tools, to dig a hole big enough to crawl into, you’ll get a sense of the strength those two front legs, shaped like a spading fork, must have to allow such a creature to vanish into the ground in seconds. These paws are proportionately much more powerful than a bear's paws, and they also have a sharp-edged tool moving back and forth behind them, which shears off the grass roots that get in the mole cricket's way as it navigates through the soil. The poor, defenseless angleworms don’t stand a chance against an enemy like this!

Upon the first joint of each clumsy front leg, it has a narrow slit-like ear which is but faintly visible in the photograph. Can you imagine a male and female calling to each other through the long and winding passageways beneath the ground? Possibly they call to each other only in the night-time, on the rare occasions when they venture out above the ground.

Upon the first joint of each awkward front leg, there’s a narrow slit-like ear that’s barely visible in the photo. Can you picture a male and female calling out to one another through the long, winding tunnels underground? They might only call to each other at night, on the rare times they come above ground.

He is a curious creature with eyes that are only rudimentary and a noxious smell that he emits if he is touched.

He is a strange creature with basic eyes and a toxic smell that he gives off when someone touches him.

The female excavates a chamber near the surface of the ground and lays her eggs in it to be incubated by the sun’s heat, as are most insects’ eggs.

The female digs a chamber close to the surface of the ground and lays her eggs in it to be warmed by the sun, just like most insect eggs.

For some time it was supposed that both parents devoured their progeny, as many as 90 per cent being eaten up, but a French observer, Monsieur Decaux, has found that the male alone is the cannibal and the mother, far from doing this, watches over them and when they hatch she feeds the little ones with bits of plant roots, earthworms and the larvæ of various insects.

For a while, it was believed that both parents consumed their offspring, with as many as 90 percent being eaten. However, a French observer, Monsieur Decaux, discovered that only the male is the cannibal, while the mother, instead of doing this, takes care of them. When they hatch, she feeds the little ones bits of plant roots, earthworms, and the larvae of various insects.

The discovery of one of these mole crickets is really an event. Most people see but one or two in all their lives. In Porto Rico, however, there is a form with longer wings which eats the roots of sugar cane, tobacco and other crops so that the “changa,” as it is called, is considered the most serious insect pest in the island.

The discovery of one of these mole crickets is quite an event. Most people only see one or two in their entire lives. In Puerto Rico, though, there's a type with longer wings that feeds on the roots of sugar cane, tobacco, and other crops, making the "changa," as it's called, the most significant insect pest on the island.

 

THE COCKROACH

THE COCKROACH

(Blatella germanica, Linn.)

(Blatella germanica, Linn.)

In carboniferous times this was a dominant creature, crawling over the giant club mosses and tree ferns which composed the marshy vegetation of the young world. Today it crawls over the cracker-box and makes its way through every crevice in the kitchen and is, of all the creatures of our houses, the most detested. This is the German cockroach, an importation from Europe, which has spread around the world, and which New Yorkers know as the croton bug.

In the Carboniferous period, this was a major creature, moving across the giant club mosses and tree ferns that made up the swampy plants of the early Earth. Today, it scurries across the walls and finds its way into every crack in the kitchen, being the most hated pest in our homes. This is the German cockroach, brought over from Europe, which has spread worldwide and is known to New Yorkers as the croton bug.

Its long, spiny legs are built for the scurrying for which it is noted, while its slippery body enables it to squeeze through crevices and holes. It carries its head tucked under its body, as if looking for food, and its whiplike antennæ, always in motion, detect at long range the presence of anything edible which can be crammed into its capacious crop.

Its long, spiny legs are designed for the quick movements it's known for, while its slick body lets it slide through cracks and holes. It keeps its head tucked under its body, as if searching for food, and its whiplike antennae, constantly moving, sense the presence of anything edible from a distance that can be stuffed into its roomy crop.

Housewives may be surprised to learn that a cockroach can live five years, and that it takes a year to develop to maturity from the egg. The female lays her eggs in a horny capsule, like a spectacle case, which she carries about with her until she is ready to deposit it in some suitable place. Later she returns to help her cockroach babies out of their shells.

Housewives might be surprised to find out that a cockroach can live for five years and that it takes a year to grow to maturity from the egg. The female lays her eggs in a hard capsule, similar to a glasses case, which she carries around with her until she's ready to place it in a suitable spot. Later, she comes back to assist her baby cockroaches in getting out of their shells.

Like the cricket, cockroaches love the night and shun the daylight. They cannot tolerate cold weather, and though there are 5,000 species they mostly inhabit the tropics, where they are the plague of domestic and ship life. It is said that “ships come into San Francisco from their long half-year voyages around the Horn with the sailors wearing gloves on their hands when asleep in their bunks in a desperate effort to save their fingernails from being gnawed off by the hordes of roaches which infest the whole ship.” (Kellogg.)

Like crickets, cockroaches thrive in the night and avoid the daylight. They can't handle cold weather, and although there are around 5,000 species, they mainly live in tropical regions, where they become a nuisance in homes and on ships. It's said that "ships come into San Francisco from their long half-year voyages around the Horn with the sailors wearing gloves on their hands while they sleep in their bunks, desperately trying to protect their fingernails from being chewed off by the swarms of roaches that infest the entire ship." (Kellogg.)

And now a rumor comes to us that the cockroach carries cancer.

And now there's a rumor going around that cockroaches can carry cancer.

 

A DEMON FLY KILLER: THE PRAYING MANTIS

A DEMON FLY KILLER: THE PRAYING MANTIS

(Paratenodera sinensis, Sauss.)

(Paratenodera sinensis, Sauss.)

Its spiny fore legs are built to hold the struggling flies, while, with its sharp jaws, it tears them to pieces much as a hawk or eagle holds its prey with its talons and tears it to shreds with its beak. It is wasteful, too, of its food, as wasteful as the sea lion, or the seal, throwing away the half-consumed carcass before it is finished and pursuing another victim.

Its spiny front legs are designed to grip the struggling flies, while it uses its sharp jaws to rip them apart just like a hawk or eagle grabs its prey with its talons and tears it to bits with its beak. It's wasteful with its food, just like a sea lion or a seal, tossing aside the half-eaten carcass before finishing it and chasing after another victim.

So voracious is its appetite and so successful is it as a hunter that Doctor Slingerland of Cornell has introduced the eggs of a species of this mantis from Europe and distributed them among his friends in the Northern states as a beneficial insect.

So huge is its appetite and so effective is it as a hunter that Dr. Slingerland from Cornell has brought in the eggs of a European species of this mantis and shared them with his friends in the Northern states as a helpful insect.

To kill a praying mantis has been in Mohammedan countries almost as great a crime as it is to kill an albatross at sea, but this was not because it kills the swarms of flies so common in those lands, but rather because of the prayerful attitude made necessary by its fiercely spined and powerful front legs.

To kill a praying mantis has been considered almost as serious a crime in Muslim countries as killing an albatross at sea, but it’s not because it preys on the swarms of flies commonly found there. Instead, it's due to the prayer-like stance created by its fiercely spined and strong front legs.

Its head is so loosely set on its long neck, or thorax, that it can move it from side to side with the greatest ease. Fabre declares that “the mantis is alone among all the insects in directing its attention to inanimate things. It inspects, it examines, it has almost a physiognomy.”

Its head is so loosely connected to its long neck, or thorax, that it can easily move it from side to side. Fabre states that “the mantis is unique among all insects for focusing its attention on inanimate objects. It inspects, it examines, it has almost a personality.”

Perhaps one is warranted in having a feeling of repugnance toward the mantis, for no other living creature has more horrible habits. There has always been something horrible about the cannibalism of human beings who ate their enemies killed in battle, but this has never seemed so revolting as the practice of the Fijians who killed members of their own tribe in cold blood for purposes of the cannibal feast. The female mantis goes a step farther than this, for she begins eating her lover even before the courtship is over.

Perhaps it's understandable to feel disgusted by the mantis, as no other creature has such horrific habits. There's always been something disturbing about humans who consume their enemies after battle, but it doesn’t seem as awful as the Fijians who coldly kill their own tribe members for a cannibal feast. The female mantis takes it a step further, as she starts eating her mate even before their courtship ends.

There is nothing about the spiders, terrifying though they must appear to their defenseless prey, to indicate that they try consciously to frighten their victims, but the mantis, by spreading out its wings and curling up its abdomen, and raising its talon-tipped, spiny legs, seems to deliberately petrify with terror the cricket or grasshopper which comes within its reach.

There’s nothing about the spiders, scary as they might seem to their helpless prey, to show that they intentionally try to scare their victims. However, the mantis, by spreading its wings, curling its abdomen, and raising its spiny legs with talon tips, appears to deliberately paralyze the cricket or grasshopper with fear when it gets close.

 

THE ORDER OF THE BUGS

THE BUGS' ORDER

(Hemiptera)

Hemiptera

How blind mankind must seem to the insect world! To look at beetles with their massive jaws and armor-plated bodies, or flies with their gauzy wings, or grasshoppers with their long jumping legs and then class them all as bugs, must seem to them incomprehensible, for to be a bug, an insect must have a sharp pointed beak, whatever else it has. It may or may not have wings, it may have a larval stage or it may not, but if it hasn’t a beak and can’t suck then it can’t be classed as a true bug.

How blind humanity must appear to the insect world! To see beetles with their powerful jaws and armored bodies, or flies with their delicate wings, or grasshoppers with their long jumping legs, and then categorize them all as bugs, must seem utterly baffling to them. To be considered a bug, an insect must have a sharp pointed beak, regardless of what else it possesses. It might have wings or it might not, it might go through a larval stage or it might not, but if it doesn’t have a beak and can’t suck, then it can’t be classified as a true bug.

These sucking insects of many shapes, although directly connected with the welfare of the human race, have been, until recently, the least known of the great orders of insects.

These sucking insects come in various shapes and have been closely tied to human well-being, yet until recently, they were among the least understood groups of insects.

To this order belong the chinch bugs, the cause of an estimated loss to the grain growers of twenty million dollars a year; the great Phylloxera, which destroyed the vines on three million acres of French vineyards, and the San José scale, which has spread during the past ten years through every state and territory in the United States and become a menace to the fruit-growing industry.

To this order belong the chinch bugs, which are responsible for an estimated loss of twenty million dollars a year for grain growers; the great Phylloxera, that wiped out the vines on three million acres of French vineyards; and the San José scale, which has spread over the last ten years to every state and territory in the United States and has become a threat to the fruit-growing industry.

It is of this order of the insect world that David Sharp remarks “... if any thing were to exterminate the enemies of Hemiptera we ourselves would probably be starved in a few months.” It does seem strange in face of all these statements of authority that our best friends, the insectivorous birds, are being killed out for lack of forest refuge. We spend millions to fight the pests when once they get the upper hand, but pay little or no attention to the comforts of those tireless workers, the birds, which would keep them down.

It’s in this part of the insect world that David Sharp notes, “...if anything were to wipe out the enemies of Hemiptera, we’d probably be starved in a few months.” It seems odd that despite these authoritative statements, our best allies, the insect-eating birds, are being wiped out due to a lack of forest refuge. We spend millions trying to battle the pests when they take control, but pay little to no attention to the needs of those tireless workers, the birds, that would help keep the pest population in check.

I am ashamed of such a fragmentary picture showing of this most important order, and hope someone will follow on with a bug book which will do the subject justice.

I feel embarrassed by this incomplete representation of such an important order, and I hope someone will come out with a detailed book that truly does the topic justice.

 

THE SQUASH BUG

The Squash Bug

(Anasa tristis, De G.)

(Anasa tristis, De G.)

The smell of the squash bug is known to every country boy. The odor is emitted through openings in the abdomen from special stink glands, which vary with each species.

The smell of the squash bug is familiar to every country kid. The odor is released through openings in the abdomen from specific stink glands, which differ by species.

The tough external skeleton explains, perhaps, why no spray is strong enough to kill the fully grown insects without also injuring the young squash and pumpkin vines, and why the best method of prevention consists in screening the young plants with a wire screen until they have grown large enough to be immune from attack. If you can find the young insects which are not yet encased in such a hardened shell, spraying with a 10 per cent kerosene emulsion will stop up their breathing pores and asphyxiate them.

The tough outer shell may explain why no spray is powerful enough to kill fully grown insects without also harming the young squash and pumpkin plants. The best way to prevent this is to cover the young plants with a wire screen until they’re big enough to resist attacks. If you can spot the young insects that haven’t yet developed that hardened shell, spraying them with a 10 percent kerosene emulsion will block their breathing pores and suffocate them.

The one in the picture is an old specimen, preparing to go into winter quarters under the leaves and wait for the tender squash and pumpkin vines to appear above the ground next spring.

The one in the picture is an old example, getting ready to settle in for the winter under the leaves and wait for the delicate squash and pumpkin vines to pop up above the ground next spring.

It is surprising how quickly they find these juicy shoots, which they pierce with their sucking beaks and upon which they lay the eggs which in a few days hatch out into a brood of small but voracious squash bugs.

It’s surprising how quickly they locate these juicy shoots, which they puncture with their sucking beaks and where they lay eggs that, in just a few days, hatch into a group of small but hungry squash bugs.

 

A STRANGE-SHAPED BUG

A weird-shaped bug

(Euschistus tristigmus, Say)

(Euschistus tristigmus, Say)

A strange-shaped bug walked into the laboratory to have his picture taken, not willing, evidently, that he should be left out of the collection. The handbooks on entomology which I possess seem not to have heard of him. He is just a common, ordinary bug, but he, doubtless, has an interesting life for all our scorning of his acquaintance.

A weird-looking bug walked into the lab to get its picture taken, clearly not wanting to be excluded from the collection. The entomology handbooks I have seem to ignore him. He’s just a regular bug, but he probably has an interesting life despite how little we think of knowing him.

 

A QUEER, UNWORLDLY MONSTER

A STRANGE, OTHERWORLDLY MONSTER

(Corynocoris distinctus, Dallas)

(Corynocoris distinctus, Dallas)

Could anything be more antediluvian and unworldly than this old, broken-down creature, with six crooked legs, a pair of popping-out eyes, two shining ocelli which look straight up into the air, and a long, stout beak that is partly hidden behind one of the fore legs?

Could anything be more outdated and strange than this old, worn-out creature, with six bent legs, bulging eyes, two shiny spots that stare straight up into the sky, and a long, thick beak that’s partially hidden behind one of its front legs?

A discussion of how such a fright of a thing came into existence leads one into the realms of evolutionary science, and there we should perhaps find it suggested that it is so ugly and looks so much like the bark of the trees on which it roosts that birds have passed its ancient forefather by, and through the weird workings of that little-understood law of heredity this thorny, spotted creature has waddled along year after year, keeping up in the race for hundreds, perhaps thousands, of centuries. I cannot help exhibiting a little of the showman’s pride in it; for, as Barnum would say, this is positively the first real appearance of this century-hidden, hoary monster before the everyday public.

A talk about how such a scary thing came to be takes us into the world of evolutionary science, where we might find that it's so ugly and resembles the bark of the trees it rests on that birds have overlooked its ancient ancestor. Through the strange workings of that not fully understood concept of heredity, this thorny, spotted creature has waddled on year after year, keeping pace in the race for hundreds, maybe thousands, of centuries. I can't help but show a bit of pride in it; as Barnum would say, this is definitely the first real appearance of this century-old, ancient monster before the everyday public.

According to the books, this species belongs to a strange family, in which are even more remarkable-looking creatures. They are all, however, characterized by having the femora of their back legs covered with knobs or spines. One of the species is so spiny all over its back that the male makes use of it to carry around the freshly laid eggs of the female.

According to the books, this species is part of an unusual family that includes even more bizarre-looking creatures. They all share the trait of having their back leg femurs covered with knobs or spines. One of the species is so spiny all over its back that the male uses it to carry around the freshly laid eggs of the female.

 

THE THREAD-LEGGED BUG

THE THREAD-LEGGED INSECT

(Emesa longipes, De G.)

(Emesa longipes, De G.)

When you consider how slight a jar of a spider’s web will bring its maker running swiftly across the web, it is interesting to be told that this thread-legged bug has the temerity to pick off insects from a spider’s web. It is plain that he stands on stilts, and with his powerful tong-like front legs, which end in spiny gripping hands, he must, I imagine, reach out across the web and pick the smaller insects from it, for he is much too small and weak and incredibly fragile to fight a spider on its own web.

When you think about how even the slightest disturbance of a spider's web can send its creator rushing over, it's fascinating to learn that this thread-legged bug dares to snatch insects from it. Clearly, he is quite tall on his long legs, and with his strong, tongue-like front legs ending in spiny gripping hands, I assume he stretches out across the web to grab the smaller insects, since he is far too small, weak, and extremely fragile to take on a spider on its own web.

Even to someone fairly familiar with the insect world he might easily be mistaken for a mantis, but his short, sharp beak, bent backwards under his chin, puts him among the bugs, where he takes his place beside the assassin bugs.

Even for someone who knows a bit about insects, he might easily be confused with a mantis, but his short, sharp beak that curves backward under his chin places him among the bugs, where he stands alongside the assassin bugs.

In one form of thread-legged bug in South America, it is said that the young larva is so long and slender that it curls itself around the mother’s body and is carried about with her, papoose-like, on her back.

In one type of thread-legged bug in South America, it is said that the young larva is so long and thin that it wraps itself around the mother’s body and is carried around with her, like a papoose, on her back.

 

THE ASSASSIN BUG

THE ASSASSIN BUG

(Pselliopus cinctus, Fab.)

(Pselliopus cinctus, Fab.)

The human species puts its assassins into striped clothing and it is a rather curious coincidence to find in the insect world an assassin bug in convict’s stripes.

The human race dresses its assassins in striped uniforms, and it’s a pretty interesting coincidence to see in the insect world an assassin bug in prison stripes.

I think no visitor to our portrait gallery has seen a more fantastic being than this little bow-legged beast. Until I found out what he was, I could not understand his rank impertinence, for he stalked leisurely about as though afraid of nothing.

I don't think any visitor to our portrait gallery has seen a more extraordinary creature than this little bow-legged beast. Until I discovered what he was, I couldn't grasp his blatant arrogance, as he walked around casually as if he feared nothing.

I wonder if he has a nasty flavor and advertises the fact by his curious coat.

I wonder if he has a bad taste and shows it off with his unusual coat.

 

AN ASSASSINATION

A hit job

(Pselliopus cinctus, Fab.)

(Pselliopus cinctus, Fab.)

I once took a photograph, without realizing it, of some Arab women at the gates of Bagdad, trying to assassinate an old man; and I cannot pass the picture in my album without shuddering.

I once accidentally took a photo of some Arab women at the gates of Baghdad who were trying to assassinate an old man, and I can't look at that picture in my album without getting chills.

This photograph affects me in the same way, for it, too, is of a real tragedy and portrays the death of a ladybird, one of the few friends man has in the whole order of beetles, and that, too, at the hands of a member of the order of bugs, the most destructive order of our insect pests.

This photograph hits me similarly because it shows a real tragedy—the death of a ladybug, one of the few friends humanity has in the entire beetle family, and it happened at the hands of a bug, the most destructive group of our insect pests.

It must be admitted that, as things go in Nature, the ladybird has met her just fate, for she has spent her life devouring bugs, the sucking aphids and scale insects of our rose bushes and cherry trees. Somehow the old nursery rhyme of

It must be acknowledged that, as it happens in Nature, the ladybug has met her deserved end, for she has spent her life eating bugs, the sucking aphids and scale insects on our rose bushes and cherry trees. Somehow the old nursery rhyme of

“Ladybird, ladybird, fly away home,
Your house is on fire, your children will burn,”

“Ladybug, ladybug, fly away home,
“Your house is burning, and your kids are in danger.”

seems to have endeared to us all this beneficent little beetle which wanders everywhere, cutting short the lives of the sap-sucking insects that deform and injure our plants, and it does not seem to matter that this particular assassin bug preys upon our enemies as well as on our friends. To find this convict striped, spiny bug, with its beak buried to the base in the vitals of the ladybird, and realize that it had first poisoned its victim with poison saliva and was now sucking its blood, rouses a peculiar feeling of hatred towards this hideously ugly creature. Perhaps this is heightened by the contrast between the pretty, trim form of the ladybird and the ugliness of the assassin bug.

seems to have won over all of us, this helpful little beetle that roams around, ending the lives of the sap-sucking insects that damage our plants. It doesn’t seem to matter that this particular assassin bug targets both our enemies and our allies. To come across this striped, spiky bug with its beak buried deep in the ladybug, and to realize that it first poisoned its victim with toxic saliva before sucking its blood, provokes a strange sense of hatred towards this incredibly ugly creature. Maybe this feeling is intensified by the contrast between the lovely, neat shape of the ladybug and the repulsiveness of the assassin bug.

I was puzzled to know how a creature so nearly armor-clad could be successfully attacked by a soft-bodied bug of such deliberate habits of movement. How the start is made I do not know, but it is evident that between the base of the wing covers of the ladybird and her neck or thorax is a weak spot in her armor and the assassin thrusts his beak into this crack.

I was confused about how a creature that is almost armored could be successfully attacked by a soft-bodied bug that moves so deliberately. I don't know how the attack starts, but it's clear that there's a weak spot in the ladybird's armor between the base of her wing covers and her neck or thorax, and the assassin puts his beak into this gap.

There are members of this assassin bug class which do not hesitate to attack little children in the South, and produce nasty wounds with their poisoned beaks.

There are members of this assassin bug class that do not hesitate to attack young children in the South, causing painful wounds with their venomous beaks.

 

THE CICADA

THE CICADA

(Cicada sayi, Grossb.)

(Cicada sayi, Grossb.)

The coming of the swallow is scarcely more significant to Americans of the Southern states than the arrival of the cicada. Its song is the noisiest song in the insect world, and is made in a curious way, by the stretching and relaxing of a corrugated drum-like membrane in the side of the abdomen by means of specially strong muscles. The sound is controlled in rhythmic cadences by means of semicircular discs or covers to the drums, which can be closed and opened at the will of the insect.

The arrival of the swallow is hardly more important to people in the Southern states than the arrival of the cicada. Its song is the loudest in the insect world and is created in a unique way, by stretching and relaxing a wrinkled drum-like membrane on the side of its abdomen using specially strong muscles. The sound is controlled in rhythmic patterns by semicircular discs or covers on the drums, which the insect can open and close at will.

This noisy song, which the male alone can sing, he doubtless sings for his mate and not for us, although entomologists are not agreed as to how his partner hears his song, as she seems to have no ears. Although this is the photograph of a two-year cicada the story can be told here of that weirdest of all the insects,—the Rip Van Winkle of the insect world, as David Sharp has called it,—the seventeen-year cicada.

This loud song, which only the male can sing, is definitely sung for his mate and not for us, even though researchers don't fully agree on how his partner hears him, since she doesn't seem to have ears. While this is a picture of a two-year cicada, we can also share the story of the strangest of all insects—the Rip Van Winkle of the insect world, as David Sharp described it—the seventeen-year cicada.

From a tiny egg laid by its mother in a twig of your back-yard shrubbery there issues a creature which is as unlike this monster as it can be, with soft, white body and mole-like front legs. It hurries to the ground and disappears beneath its surface sometimes to a depth of a hundred times its length—twenty feet it is said. For seventeen years it digs its way around in the absolute darkness of this underworld, and then, as though by some prearranged agreement, it comes to the surface to join in a marriage revelry of a few brief weeks in summer with its kinsmen of the same generation who disappeared as it did into the darkness seventeen years before.

From a tiny egg laid by its mother on a twig in your backyard shrubbery comes a creature that is nothing like this monster—it has a soft, white body and mole-like front legs. It quickly scurries to the ground and vanishes beneath the surface, sometimes digging as deep as a hundred times its length—up to twenty feet, they say. For seventeen years, it tunnels through the complete darkness of this underground world, and then, almost as if on cue, it emerges to join in a brief summer mating celebration with its relatives from the same generation who vanished into the darkness seventeen years earlier.

Most insects live for a few months only, and one, indeed, the male at least, for only fifteen or twenty minutes; but the seventeen-year cicada, the oldest of the insect world, lives as long as a cat or dog. But what a life! Seventeen years of it in the dark and a few weeks in the sunlight. And yet, compared to the life of an angleworm, condemned to the darkness forever, what an interesting career!

Most insects only live for a few months, and one, at least the male, lives for just fifteen or twenty minutes; but the seventeen-year cicada, the oldest insect around, lives as long as a cat or dog. But what a life! Seventeen years spent in the dark and just a few weeks in the sunlight. And yet, compared to the life of an angleworm, stuck in darkness forever, what an interesting life!

When the cicada’s shrill song disturbs you, then remember how brief is the pleasure of its existence.

When the loud song of the cicada bothers you, remember how short-lived its joy is.

 

THE AMBUSH BUG

Ambush Bug

(Phymata pennsylvanica, Handl.)

(Phymata pennsylvanica, Handl.)

We are personally so afraid of a bee’s sting that it is hard for us to believe that any mere bug exists which is strong enough to overcome and kill a wasp or honey bee. A look at the thick armor of this creature and its powerful, black pointed beak will go a long way towards convincing one that this may be such a bug; it has a close relative, anyway, which does so. Its front legs have been developed into enormously strong claws with which to catch and hold its prey.

We’re so scared of getting stung by a bee that it's hard to believe there's any little creature out there that can take down a wasp or honey bee. Just looking at the tough armor of this insect and its strong, black, pointed beak will really make you think it might be one of those creatures; it even has a close relative that does. Its front legs have turned into super strong claws that are perfect for catching and holding its prey.

It lurks in flowers and preys on honey-sucking insects, and one can easily imagine the unequal struggle between it and a butterfly, or realize that it might come off victor in a fight with bees or wasps.

It hides in flowers and hunts honey-loving insects, and one can easily picture the unfair battle between it and a butterfly, or understand that it could win against bees or wasps.

There are such romantic scenes and bloodcurdling spectacles to be observed in this world of insects that I cannot understand why there are so few who, having ample time, have not the patience to sit and watch them as Fabre and others less well known have done.

There are so many romantic scenes and terrifying sights to see in the world of insects that I can’t understand why so few people, having plenty of time, lack the patience to sit and watch them like Fabre and others who aren’t as famous have done.

No schoolroom training in observation can compare in value with the outdoor observations of living insects. To look and wait and think and try to understand; what habits of observation, perseverance and reflection these actions cultivate!

No classroom training in observation can match the value of observing live insects outdoors. Looking, waiting, thinking, and trying to understand—these actions foster habits of observation, perseverance, and reflection!

 

A BUG THAT IS ALWAYS WALKING AROUND

A BUG THAT IS ALWAYS WALKING AROUND

(Brochymena arborea, Say)

(Brochymena arborea, Say)

No photograph in the collection illustrates better the marvelous variety of form which abounds in the jungle of our back yards. To the naked eye all the interesting details are invisible and one’s hand instinctively brushes the intruder from the table where it has crawled in to take a look at a human being.

No photograph in the collection better shows the amazing variety of shapes found in the jungles of our backyards. To the naked eye, all the fascinating details are hidden, and we instinctively swipe away the intruder that crawls onto the table to check out a human being.

The spotted, crablike legs, covered with bristles, the beadlike facet eyes, the oyster shell shaped body, the moving antennæ all covered with white scales, the curious trunk or sucking pipe descending from the chin, give to the creature a personality which combines something of the wistful with the curious. And yet this is, as my friend Dr. Schwartz says, “just one of those bugs that is always walking around on our plants and nobody seems to know just what it is doing.”

The spotted, crab-like legs covered in bristles, the bead-like compound eyes, the oyster shell-shaped body, the moving antennae all covered in white scales, and the strange trunk or sucking tube hanging from the chin give this creature a personality that mixes a sense of longing with curiosity. Yet, as my friend Dr. Schwartz says, “it’s just one of those bugs that’s always crawling around on our plants, and nobody really knows what it’s up to.”

 

THE TARNISHED PLANT BUG

The Tarnished Plant Bug

(Lygus pratensis, Linn.)

(Lygus pratensis, Linn.)

If you have ever carefully tended young vegetable plants, set them out by hand and watched over them, you will certainly have made the acquaintance of this vicious little creature a quarter of an inch long. At least you will have found where he drove his proboscis and sucked the juices from your tender plant, leaving his irritating fluids behind to distort the tissues of the leaf or bud. He lives in the rubbish which was left littering up the garden and is waiting now for spring to come when he will make his appearance and do whatever damage is necessary for his existence. You cannot spray him with kerosene for he is too agile, skipping away from you in the sunlight, but when his mate lays her eggs, and the young nymphs with wingless bodies crawl about, you can kill them with a dose of kerosene oil emulsion which will close their breathing pores and suffocate them.

If you’ve ever carefully looked after young vegetable plants, planted them by hand, and kept an eye on them, you’ve definitely encountered this nasty little pest that’s about a quarter of an inch long. You probably noticed where he inserted his mouthparts and drained the juices from your delicate plant, leaving behind irritating fluids that distort the tissues of the leaf or bud. He hides in the debris that cluttered your garden, waiting for spring to arrive so he can make his appearance and cause whatever damage he needs to survive. You can’t spray him with kerosene because he’s too quick, darting away from you in the sunlight, but when his partner lays her eggs and the young nymphs with no wings start crawling around, you can wipe them out with a dose of kerosene oil emulsion that will clog their breathing pores and suffocate them.

 

THE LANTERN FLY BUG

The Lanternfly

(Helicoptera variegata, Van D.)

(Helicoptera variegata, Van D.)

This creature belongs to the family of lantern flies and is also related to the little leaf hoppers which one startles from the grass by the hundred in walking across a lawn or meadow.

This creature is part of the lantern fly family and is also related to the tiny leaf hoppers that you can scare up by the hundreds when walking across a lawn or meadow.

It is a small, grey bug, not a quarter of an inch long, and quite insignificant when looked at with the naked eye, yet it is quite as strange in form as any of the prehistoric monsters.

It’s a tiny, gray bug, less than a quarter of an inch long, and pretty unremarkable when seen with the naked eye, yet it’s just as strange in shape as any of the ancient monsters.

Its powerful beak is made up, as are the beaks of all the great order of sucking insects, of four hairlike bodies, four fine, flexible, closely connected rods enclosed in a narrow groove and sharp enough to puncture the skin of a succulent young plant. Not only are these hairlike rods as sharp as needles, but the outer pair are usually barbed so that, once introduced, a hold is easily maintained.

Its powerful beak is made up, like the beaks of all the great order of sucking insects, of four hairlike structures—four fine, flexible, closely connected rods that are housed in a narrow groove and sharp enough to puncture the skin of a tender young plant. Not only are these hairlike rods as sharp as needles, but the outer pair are usually barbed, so that once they’re inserted, it’s easy to keep a grip.

Under the throat is an organ of the nature of a force pump which injects an irritating fluid into the plant. It is supposed that this gives rise to an irritation or congestion of the plant tissue, and thus keeps up a supply of liquid food for the bug at the point operated upon, which, rising by capillary attraction along the grooved rods, finds its way into the stomach of the insect.

Under the throat is an organ similar to a force pump that injects an irritating fluid into the plant. It is believed that this causes irritation or congestion of the plant tissue, which maintains a supply of liquid food for the bug at the affected area. This fluid then travels upward through capillary attraction along the grooved rods and into the stomach of the insect.

That these leaf-sucking insects inject a poison is shown by the way in which the punctured leaves curl up, turn brown and die.

That these leaf-sucking insects inject a poison is evident from how the punctured leaves curl up, turn brown, and die.

THE BEETLES

THE BEATLES

(Coleoptera)

(Coleoptera)

Beetles are distinguished from the other orders of flying creatures by having the first pair of wings changed into shells under which the other pair can be safely folded and laid away. You can usually recognize them when they spread their wings to fly, for they have to raise their wing covers in order to do so. Also they generally have prominent jaws, as they are biting creatures and do not suck the juices of plants and animals as the bugs do.

Beetles are different from other types of flying insects because their front pair of wings has evolved into hard shells that protect the second pair, which they can easily fold away. You can often spot them when they take off, as they need to lift their wing covers to fly. They also typically have noticeable jaws because they chew their food instead of sucking juices like bugs do.

Beetles are almost everywhere. You cannot turn over a stone or break down a stump or roll over a log without disturbing some of them, and yet perhaps less is known about the lives of beetles than about those of any other of the great orders of insects.

Beetles are nearly everywhere. You can't flip over a stone, break down a stump, or roll over a log without finding some of them, yet maybe we know less about the lives of beetles than about any other major group of insects.

They lead two lives, distinct as two lives can be: one in the form of a grub, the other as a full-grown beetle. To make the transformation, they burrow into the ground or into the wood of trees and but rarely make for themselves silken cocoons such as the butterfly larvæ spin.

They live two separate lives, as different as can be: one as a larva and the other as a mature beetle. To change from one to the other, they dig into the ground or into the wood of trees and seldom create silken cocoons like the ones that butterfly larvae spin.

They do not lead so aerial an existence as some other orders, but, nevertheless, they are today, perhaps because of their closely fitting outer shells, the predominant order of insects of the present epoch and already there are known the bewildering number of 150,000 species. In North America alone (Mexico excepted) 12,000 species have been described and these have been grouped into eighty families and 2,000 genera. The general public is beginning to realize that not everyone can be an entomologist, and that the quality of brains and training required before one can travel safely among this maze of forms and distinguish between the friends and foes of our agriculture is a quality of the greatest value to mankind.

They don’t have as lofty a lifestyle as some other groups, but they are, today, perhaps due to their snug outer shells, the leading group of insects in our era, with a staggering 150,000 known species. In North America alone (excluding Mexico), 12,000 species have been identified and categorized into eighty families and 2,000 genera. The general public is starting to understand that not everyone can be an entomologist and that the intelligence and training needed to safely navigate this complex variety and distinguish between allies and enemies of our agriculture is extremely valuable to humanity.

So far as man is concerned, this gigantic class of creatures is among the most destructive with which we divide life on this planet, and though there are beetle friends which help us by preying on other beetles and by making humus out of leaves and twigs, and by feeding millions of our song birds, yet, as a whole, they represent a restless, armored multitude which perhaps we should be just as well without.

As far as humans are concerned, this massive group of creatures is one of the most destructive that we share this planet with. While there are some beetles that benefit us by feeding on other beetles, breaking down leaves and twigs into humus, and providing food for millions of our songbirds, overall, they make up an unsettled, armored crowd that we might be just as fine without.

 

THE JUNE BEETLE

The June Bug

(Allorhina nitida, Linn.)

(Allorhina nitida, Linn.)

In looking at these two strange beings (this picture and the next), we cannot feel confident that science has gone very far in giving us the reasons for the things we see. They seem no more alike than fish and tortoise or bird and quadruped and yet, before our very eyes, in one brief year, the one turns into the other.

In examining these two unusual creatures (this image and the next), we can't be sure that science has made much progress in explaining what we observe. They seem as different as fish and turtles or birds and four-legged animals, and yet, right before us, in just one short year, one transforms into the other.

This beetle dies, and leaves behind a hundred little cells, parts of its own body and the body of its mate. These paired cells, the fertilized eggs, grow rapidly into the form of the clumsy, helpless grub which feeds upon the leaves, only to break up and form themselves again into this armor-plated creature of the beetle world.

This beetle dies and leaves behind a hundred small cells, parts of its own body and its mate's body. These paired cells, the fertilized eggs, quickly develop into a clumsy, helpless grub that feeds on leaves, only to eventually transform back into this tough, armored creature of the beetle world.

There must be something as radically wrong with our individualistic ideas of today as there was with the conception of a flat world which prevailed before the time of Columbus. Perhaps if we stop trying to think of these manifestations of beetle life as individuals and think of them as parts of one great organism scattered over the surface of the earth, these striking differences will seem no stranger to us than do the differences in the various stages of a flower’s life. The beetle forms inside the grub and the tulip flower bud forms inside the bulb. If tulip flowers could fly, we should then have the strange spectacle of the opening of the scale-covered tulip bulb and the coming forth of the gorgeous colored flower which sailed away to shed its seeds in someone else’s garden. I think that this is the way we must look at it if we would get a clear idea of this strangest of phenomena,—metamorphosis.

There has to be something just as fundamentally wrong with our individualistic views today as there was with the idea of a flat earth that existed before Columbus. Maybe if we stop viewing these aspects of beetle life as individual beings and instead consider them as parts of one large organism spread across the planet, these notable differences will seem as familiar to us as the various stages of a flower's life. The beetle develops inside the grub, just as the tulip flower bud forms inside the bulb. If tulip flowers could fly, we would witness the unusual sight of the scale-covered tulip bulb opening up and the vibrant flower emerging to float away and drop its seeds in another garden. I believe this is how we should approach it if we want to fully understand this peculiar phenomenon—metamorphosis.

 

THE JUNE BEETLE LARVA

JUNE BEETLE LARVA

(Allorhina nitida, Linn.)

(Allorhina nitida, Linnaeus)

How is it possible that this fat creature, with eye-like breathing pores along its body, whose legs are worthless, and which is so helpless that it has to turn over on its back to wriggle over the ground, can change into the emerald-green June beetle which wings its way like an aerodrome across the meadow? This is the apparent miracle of metamorphosis which it has well-nigh baffled the intellect of man to explain.

How is it possible that this fat creature, with breathing pores that look like eyes along its body, whose legs are useless, and which is so helpless that it has to flip onto its back to crawl over the ground, can transform into the emerald-green June beetle that flies like a plane across the meadow? This is the seemingly miraculous process of metamorphosis that has nearly stumped human understanding.

Though the reasons for it are still unknown, modern research has shown us how this incredible change has taken place.

Though the reasons for it are still unknown, modern research has shown us how this amazing change has occurred.

When this creature, which has grown a hundred times its size since it was born, has reached the age for this great change, it doubtless feels the impending transformation coming, and instinct tells it to crawl away into some protected nook or corner and pupate underneath the protection of a silken coverlid of its own spinning.

When this creature, which has grown a hundred times its size since it was born, reaches the age for this major change, it likely senses the upcoming transformation and instinctively crawls away to a safe nook or corner to pupate under a silken blanket it spins itself.

The change begins; each organ goes to pieces, disintegrates, becomes a mass of disconnected cells, so that the body filled with these, becomes, as it were, a bag of mush. This mushy fluid has been likened by entomologists to the disintegrated tissues which inflammation causes in our own bodies. If, then, you should slit it open at this stage, you would find no alimentary canal, no salivary glands, no muscles, simply a thick fluid, with here and there a thicker lump, that is attached at certain places to the inside of the sac wall. These lumps are formed of groups of active cells which were not disintegrated in the general breakdown of the muscle tissue, and these form the nuclei around which the new creature is to be built. These groups of cells grow rapidly, feeding on the fluid mass of broken-down tissue much as a young chick inside the egg feeds on the yolk, and builds up the whole complicated structure of the winged beetle, which seems to have no possible relations to the white grub out of whose body it was made.

The change begins; each organ falls apart, breaks down, and turns into a mass of disconnected cells, making the body, filled with these, a sort of bag of mush. Entomologists have compared this mushy fluid to the disintegrated tissues that inflammation creates in our bodies. So, if you were to cut it open at this point, you would find no digestive system, no salivary glands, no muscles—just a thick fluid, with some thicker clumps attached in certain spots to the inside of the sac wall. These clumps are made up of groups of active cells that didn’t break down in the overall collapse of the muscle tissue, and they form the core around which the new creature will be built. These groups of cells grow quickly, feeding on the fluid mass of broken-down tissue much like a young chick inside an egg feeds on the yolk, and they create the entire complex structure of the winged beetle, which seems completely unrelated to the white grub from which it was formed.

It is as though the insect hatched twice, first from the almost microscopic egg its mother laid and from which it emerged as a tiny little creature in the image of this grub, growing and manufacturing from the leaves it eats enough nitrogenous matter so that when it emerges again from the yolk-like substance of its cocoon it will be a full-grown beetle, for it must be remembered that once made the beetle never grows.

It’s like the insect hatches twice: first from the tiny egg its mother laid, and it comes out as this little creature resembling a grub. It grows and processes the leaves it eats to gather enough nutrients so that when it hatches again from the yolk-like stuff of its cocoon, it will be a fully grown beetle. Remember, once the beetle is formed, it never grows anymore.

This wonderful process is the same which is gone through by every flying insect that has a grub or caterpillar stage.

This amazing process is the same one that every flying insect with a grub or caterpillar stage goes through.

 

ONE OF THE JUNE BUGS OR MAY BEETLES

ONE OF THE JUNE BUGS OR MAY BEETLES

(Lachnosterna quercus, Knoch)

(Lachnosterna quercus, Knoch)

Of the wild creatures of our back yards, none is better known than this hard-shelled buzzing creature, which whirs into the circle of light around your lamp and commits suicide, if you will let it, by flying into the flame.

Of the wild animals in our backyards, none is more familiar than this hard-shelled buzzing insect, which zooms into the light around your lamp and will die, if you let it, by flying into the flame.

It is one of the so-called June bugs, or May beetles, which every boy and girl knows, and is not the June beetle of which the larva was shown previously.

It’s one of the June bugs, or May beetles, that every kid knows about, and it’s not the June beetle whose larva was shown before.

Its hard, pitted skeleton covers it completely, and it is most interesting to watch it open its wing covers with great deliberation, unfold the wings which are carefully stowed away beneath them, and holding its wing covers elevated so they will not interfere, start the transparent wings into motion and fly away with the whir of a miniature aerodrome. Indeed, it was this resemblance which caused the members of the Aerial Experiment Association to name one of their first aerodromes after it, and the first trophy ever given for an aerodrome flight was won by Curtis’s “June Bug.”

Its hard, pitted skeleton completely covers it, and it's fascinating to watch it deliberately open its wing covers, unfold the wings that are tucked away beneath them, and, while holding the wing covers up so they won’t get in the way, start the transparent wings moving and fly off with the sound of a tiny airplane. In fact, it was this similarity that led the members of the Aerial Experiment Association to name one of their first airplanes after it, and the very first trophy ever awarded for a flight was won by Curtis's "June Bug."

This creature’s first life is spent beneath the sod of your lawn, where it curls up around the roots of the grasses and clover and other plants which you do not want it to eat, and the first year of its subterranean existence it is the white grub, with the brown head, which everybody knows. At the end of the second summer of its life it changes to a soft brown beetle, which throughout the winter is hardening its shell preparatory to coming out in late spring as a winged creature to feed upon the leaves of trees. The beetle which is walking toward you lives upon the oak.

This creature’s first life is spent under the ground of your lawn, where it wraps itself around the roots of the grass, clover, and other plants you don’t want it to eat. During its first year underground, it is the white grub with the brown head that everyone recognizes. By the end of its second summer, it transforms into a soft brown beetle, which hardens its shell throughout the winter to prepare for emerging in late spring as a winged creature that feeds on tree leaves. The beetle approaching you feeds on oak trees.

 

ONE OF THE TWIG-PRUNERS

ONE OF THE BRANCH-TRIMMERS

(Elaphidion atomaricum, Dru.)

(Elaphidion atomaricum, Dru.)

The long-horned beetles, as they are called, are remarkable for the length of their antennæ and for their eyes of many facets, which almost encircle the antennæ at their base. They have, like other beetles, two lives, so to speak, and their grub-life is spent inside some twig or branch, burrowing and living on the juices which their stomachs extract from the sawdust made by their jaws. They kill the twig they burrow in, so that the wind blows it to the ground, and they go through their transformation on the ground. The story is told of a long-horned beetle, belonging to a different species, that lived for years in its larval stage, burrowing patiently into the dry wood of a boot-last or shoe-stretcher, trying vainly to get enough nourishment out of it to make a beetle of itself.

The long-horned beetles, as they’re called, are notable for their long antennae and their multi-faceted eyes that almost surround the base of the antennae. Like other beetles, they have two lives, so to speak, and their larval stage is spent inside a twig or branch, burrowing in and feeding on the juices their stomachs extract from the sawdust created by their jaws. They eventually kill the twig they’re in, causing it to fall to the ground, where they undergo their transformation. There’s a story about a long-horned beetle from a different species that lived for years in its larval stage, patiently burrowing into the dry wood of a boot-last or shoe-stretcher, desperately trying to get enough nourishment to become a full beetle.

 

THE PREDACEOUS GROUND BEETLE

THE PREDATORY GROUND BEETLE

(Chlænius æstivus, Say)

(Chlænius æstivus, Say)

This creature almost anyone will recognize as a beetle. It is built for running, and its jaws are made for fighting. You have only to catch one and watch it open and shut its jaws to realize that it would bite you if it could. But for all that it is a great friend, for it is what the entomologists call predaceous, and at night or at twilight it hunts everywhere for the larvæ of insects which attack the plants we live on. In its larval state, in which it looks for all the world like a centiped without the “ped,” it burrows in the ground in search of the plant destroyers, which think to escape notice by getting under the cover of the soil. It is by nature, then, opposed to the vegetarians, the herbivores, and hunts them wherever they are likely to occur.

This creature is recognizable to almost everyone as a beetle. It's built for running, and its jaws are designed for fighting. You just need to catch one and observe it opening and closing its jaws to understand that it would bite you if it had the chance. But despite that, it’s a great ally because, as entomologists call it, it's predatory, and at night or during twilight, it hunts everywhere for the larvae of insects that attack the plants we depend on. In its larval stage, which looks just like a centipede without the “ped,” it burrows into the ground searching for plant destroyers that think they can hide under the soil. By nature, it opposes vegetarians and herbivores, hunting them wherever they’re likely to be found.

When you see a black or dark-brown beetle running swiftly from under some stone or log whirls you have just turned over and which makes faces with its jaws as though it would chew your fingers when you pick it up, you can be quite sure in eight times out of ten that it is one of these carabidæ or predaceous ground beetles, and if you let it drop from your fingers you may be saving the life of a friend, because some day it may eat the worm which, lying close to some pet flower of yours, had planned to cut it off beneath the ground.

When you spot a black or dark-brown beetle quickly scurrying out from under a stone or log you've just flipped over, and it makes gestures with its jaws as if it wants to bite your fingers when you pick it up, you can be pretty sure that it's one of those carabid beetles or predatory ground beetles about eighty percent of the time. If you let it go from your fingers, you might be saving a friend’s life, because one day it could eat the worm that was planning to destroy one of your favorite flowers by cutting it off underground.

It is one of the hardest things in all the world to understand how balanced is this scale of foe and friend. One year there is a wiping out of our insect friends through frost or floods or microscopic disease, and, freed thus from the check which kept their numbers down, the foes to our plants can multiply to such an extent that nothing we can do will save our crops from total failure. Next year, perhaps, the parasitic beetle, finding such a wealth of food to live upon, increases and holds well in check the pest which last year ate up all our plants. Each wave of insect pests could be explained, no doubt, if all the facts were known, and nowadays no one who knows what modern agriculture means will fail to reckon on the risks from losses caused by these pests.

It’s one of the toughest things in the world to grasp how balanced this scale of enemies and allies really is. One year, we might see a wipeout of our insect allies due to frost, floods, or microscopic diseases. When that happens, the pests that threaten our plants can multiply so much that there’s nothing we can do to save our crops from total loss. The following year, maybe the parasitic beetle, with plenty of food available, increases in number and keeps in check the pests that devastated our plants the year before. Each wave of insect pests could probably be explained if we had all the facts, and these days, anyone who understands modern agriculture knows to consider the risks from damage caused by these pests.

 

THE CLOVER LEAF WEEVIL

Clover leaf weevil

(Phytonomus punctatus, Fab.)

(Phytonomus punctatus, Fab.)

Could anyone suspect this modest antediluvian creature coming toward you out of the gloom, hanging his head, as it were, of any designs against anyone? He has them, however, and if you will examine your clover leaves in June you will find them scalloped with irregular patches eaten out of them. It would be easy for him to prove an alibi, since it is his other self, his larval existence, which does it and does it at night, too, coming up out of the base of the clover plant where it hides during the daytime. Occasionally in August he can himself be seen feeding on the clover leaves. In his two existences he manages to do a good deal of damage to the clover fields of the farmer, necessitating the plowing up of old fields when he becomes too numerous.

Could anyone suspect this unassuming, ancient creature coming toward you from the shadows, head down, of any harmful intentions? Yet he does have them, and if you check your clover leaves in June, you’ll find they are scalloped with irregular patches missing from them. It would be easy for him to establish an alibi since it’s his other self, his larval stage, that does the damage, and it does so at night, emerging from the base of the clover plant where it hides during the day. Occasionally, in August, you can see him himself feeding on the clover leaves. In his two forms, he causes a lot of harm to the farmer’s clover fields, often leading to the need to plow up old fields when he becomes too numerous.

But let us look at the company he keeps. He is in the same class with the alfalfa weevil which came over from central Asia recently and spread through the alfalfa fields of Utah, threatened the alfalfa growers with ruin and set the Entomological Bureau of the Government out on the trail of some parasite, some enemy of his which they were sure must have held him in check in his native land. If you could have heard the conferences which were held and the drastic measures relating to traffic which were proposed you would realize that it is no child’s play to fight the Asiatic relative of this modest-looking creature.

But let’s take a look at the company he keeps. He’s in the same league as the alfalfa weevil that recently arrived from Central Asia and spread through the alfalfa fields of Utah, putting alfalfa growers at risk of disaster and sending the government’s Entomological Bureau on a quest for some parasite, some enemy of his that they believed must have kept him in check back in his home country. If you could have listened to the meetings that were held and the drastic measures regarding control that were suggested, you’d understand that combating the Asiatic relative of this seemingly harmless creature is no small feat.

But it has in this country worse relatives even than the alfalfa weevil. It is related to the cotton boll weevil, which has brought thousands of families in the South to the point of starvation and drawn millions of dollars from the federal treasury of the country in an effort to fight it and lessen its ravages throughout the cotton belt of the Southern states. Thousands of lectures are being given to tell the farmers what its habits are and how it can be prevented.

But in this country, it has even worse relatives than the alfalfa weevil. It's related to the cotton boll weevil, which has pushed thousands of families in the South to the brink of starvation and drained millions of dollars from the federal treasury in attempts to combat it and reduce its destruction across the cotton belt of the Southern states. Thousands of lectures are being held to inform farmers about its habits and how they can prevent it.

It has other more distant relatives which live in the forest trees and make wonderful burrows which look like hieroglyphics. As that remarkable entomologist, Hubbard, discovered, they are cultivators of microscopic mushrooms as wonderful as those of the mushroom nests of the atta ants or the termites of the tropics. Incidentally, and this is the important point, they kill the trees, fires start in the dead trees, and it is estimated roughly by Dr. Hopkins, the Forest Entomologist, that they destroy over a hundred million dollars’ worth of timber annually or, at least, are one of the principal causes of this gigantic loss.

It has other more distant relatives that live in the forest trees and create amazing burrows that resemble hieroglyphics. As the remarkable entomologist Hubbard discovered, they cultivate microscopic mushrooms as impressive as those found in the mushroom nests of the Atta ants or the termites of the tropics. By the way, and this is the key point, they kill the trees, fires start in the dead trees, and it is estimated by Dr. Hopkins, the Forest Entomologist, that they destroy over a hundred million dollars’ worth of timber each year or, at the very least, are one of the main causes of this enormous loss.

 

THE SPOTTED VINE CHAFER IN FLIGHT

THE SPOTTED VINE CHAFER IN FLIGHT

(Pelidnota punctata, Linn.)

(Pelidnota punctata, Linn.)

How often one sees lame butterflies limping along in their flight, because their wings have been injured by the rose bushes or by striking against the pine needles or have been nipped by some hungry bird. The beetles, when they alight, carefully fold up each delicate wing, close down over them polished covers as hard almost as steel and fitting as closely as the engine covers of an automobile. Whether these wing covers act as aeroplanes or as rudders for the beetles when in flight is as yet unknown. There are strange, almost microscopic, markings over the surface of these wing covers and in some species there are glands inside them which secrete a fluid which reaches the surface through minute pores, but the use of this fluid we are still unable to discover.

How often do we see injured butterflies struggling to fly because their wings have been damaged by rose bushes, pine needles, or pecked by some hungry bird? The beetles, when they land, carefully fold each delicate wing and close polished covers over them, which are almost as hard as steel and fit as closely as an automobile's engine covers. Whether these wing covers function as wings or rudders for the beetles during flight is still unknown. There are strange, almost microscopic markings on the surface of these wing covers, and in some species, there are glands inside them that secrete a fluid reaching the surface through tiny pores, but we have yet to discover the purpose of this fluid.

It seems likely that the discovery, if we may so term it, of these wing-protecting shells, has been of tremendous advantage to the class of organisms where it first appeared. At any rate, among the insects the order of beetles (Coleoptera) is the predominating one of this epoch.

It seems likely that the discovery, if we can call it that, of these wing-protecting shells has been a huge advantage to the type of organisms where it first showed up. In any case, among insects, the order of beetles (Coleoptera) is the dominant one of this time.

When one thinks that man has just begun to fly, whereas the beetles flew perhaps a hundred million years or more ago, these wings and their most perfect chitinized wing covers are deserving of our wonder and of our admiration, too.

When you consider that humans have only just started to fly, while beetles have been flying for maybe a hundred million years or more, their wings and their incredibly perfected chitinized wing covers truly deserve our amazement and admiration.

This light, yellowish brown and black spotted beetle prefers the leaves of the grape vine to those of any other plant, and in its grub life it burrows in rotten wood, especially in decaying roots of apple, pear and hickory trees.

This light, yellowish-brown and black-spotted beetle prefers the leaves of grapevines over those of any other plant, and during its larval stage, it digs into rotting wood, particularly in the decaying roots of apple, pear, and hickory trees.

 

ONE OF THE BLISTER OR CANTHARIDES BEETLES

ONE OF THE BLISTER OR CANTHARIDES BEETLES

(Epicanta marginata, Fab.)

(Epicanta marginata, Fab.)

I can never look at this beetle without a feeling of emotion, for in a desperate struggle to escape from the fate predestined by a bald-headed ancestry, I once submitted to the treatment of a noted hair specialist and allowed him to apply to my scalp the acrid oil of the blister beetle. And the melancholy part is that it did no good.

I can never look at this beetle without feeling emotional, because in a desperate attempt to escape the fate determined by my bald ancestors, I once went to a famous hair specialist and let him apply the harsh oil of the blister beetle to my scalp. The sad part is that it didn’t help at all.

Fabre has described how the female European blister beetle lays a thousand or two eggs in the ground in close proximity to the nest of the solitary bee whose eggs form the only food of the blister beetle larva. From the beetles’ eggs hatch out strong-jawed, six-legged spiny larvæ called triangulins. Although born close to the nests of the bees, which in this case are in the ground, these triangulins do not enter the nests, but attempt to attach themselves to any hairy object which may come near, much as burrs attach themselves to the wool of sheep.

Fabre described how the female European blister beetle lays a thousand or so eggs in the ground near the nest of a solitary bee, which is the only food source for the blister beetle larvae. The eggs hatch into strong-jawed, six-legged spiny larvae known as triangulins. Despite being born near the bees' nests, which are underground in this case, these triangulins don't enter the nests. Instead, they try to grab onto any hairy object that comes close, similar to how burrs cling to sheep's wool.

A certain number of them by merest chance, apparently, succeed in getting onto the bodies of the bees and are carried by them to their nests. As the male bees, in this particular species, appear a month before the female, it seems probable, Fabre thinks, that the vast majority of triangulins attach themselves at first to the males and later, when a chance occurs, discovering their mistake, transfer themselves onto the females and so get carried to the underground cells, and are present when the mother bee fills the cell with honey and then lays an egg which floats around on top.

A certain number of them, just by chance, manage to get onto the bodies of the bees and are taken to their nests. Since the male bees of this particular species appear a month before the females, it seems likely, according to Fabre, that most triangulins initially attach themselves to the males. Then, when the opportunity arises, realizing their mistake, they move onto the females and get carried to the underground cells, where they are present when the mother bee fills the cell with honey and lays an egg that floats on top.

There is something ghastly in the picture of the mother bee laying her single egg, with the blister beetle larva on her back waiting till the last moment in order to slip unexpectedly from her body to the egg, on which it floats in the honey as on a raft. When the unsuspecting bee has closed in her unborn child, the hideous monster which is perched on top of it eats it up. This takes eight days, and when it has eaten up its raft, the triangulin moults and becomes, as it were, an aquatic creature with breathing pores so placed that it can float on the honey, and with a stomach so changed that it can be nourished by it. In about eight more days the honey is consumed and the final moult takes place.

There’s something horrifying about the image of the mother bee laying her single egg, with the blister beetle larva on her back waiting until the last moment to drop unexpectedly onto the egg, which floats in the honey like a raft. When the unsuspecting bee has sealed in her unborn child, the grotesque creature sitting on top of it devours it. This process takes eight days, and once it has consumed its support, the larva sheds its skin and transforms into, essentially, an aquatic creature with breathing pores positioned so it can float on the honey, and with a stomach changed to be able to feed on it. In about eight more days, the honey is gone, and the final shedding occurs.

 

A HIPPOPOTAMUS AMONG THE INSECTS

A Hippo Among the Bugs

(Prionus sp.)

(Prionus sp.)

Why beetles as large as elephants never came into existence on this planet, or have they developed on some other of the countless worlds of space, are questions too hard for us to answer.

Why beetles as large as elephants never existed on this planet, or if they have evolved on some other countless worlds in space, are questions that are too difficult for us to answer.

This wonderfully protected creature with long horn-like antennæ and hippopotamus-like jaws is a relative of the largest of the beetles, those which live in the great forests along the Amazon or in the tropical jungles of the Fijian Islands, and whose grubs are good to eat. Some years ago, in a clearing in a New Zealand forest, a Maori dug out several handfuls of the white wriggling creatures for me and a settler’s wife fried them with butter over the fire in her kitchen stove, and I can testify that they were as crisp and delicate as fried oysters.

This beautifully protected creature with long, horn-like antennae and jaws like a hippopotamus is related to the largest beetles, those found in the vast forests along the Amazon or in the tropical jungles of the Fijian Islands, whose larvae are edible. A few years ago, in a clearing in a New Zealand forest, a Maori dug up several handfuls of the white, wriggling larvae for me, and a settler’s wife fried them with butter on her kitchen stove. I can say they were as crispy and delicate as fried oysters.

Like the other giant creatures of the forest, these Prionids, as they are called, are growing rarer with the destruction of the forest trees on which they live, and some day their skeletons in museum cases may be all that remain of them.

Like the other massive creatures in the forest, these Prionids, as they're called, are becoming increasingly rare due to the destruction of the trees they depend on, and someday their skeletons in museum displays might be all that's left of them.

These long-horned wood borers do not themselves bore into the wood; how could they with their long antennæ? It is their other selves, their grubs, that live deep in the solid heart wood of some oak or hickory tree. There is something strange in their solitary hermit-cell life. Think of living for two years or more in a narrow hole which shuts you in on all sides and having for a steady diet the walls of your cell to feed upon. Prisoners have burrowed under prison stockades to escape, but these larvæ deliberately leave the outer, softer sapwood in which they hatch, and start for the interior of the trunk, packing behind them with sawdust and excrement the tunnel which they eat out.

These long-horned wood borers don’t actually drill into the wood themselves; how could they with their long antennae? It’s their larvae that live deep in the solid heartwood of some oak or hickory tree. There’s something odd about their solitary, hermit-like existence. Imagine living for two years or more in a narrow hole that encloses you on all sides, with the walls of your cell as your only food source. While prisoners have dug under prison fences to escape, these larvae intentionally leave the softer sapwood where they hatch and burrow into the trunk's interior, packing the tunnel behind them with sawdust and waste.

The fact that the grubs of some species of these Prionids choose to live in the roots and trunks of trees which we choose to cultivate makes them our enemies, and every good orchardist knows that the only way to stop them is to dig them out or stab them with a wire run through them in their burrows.

The fact that the larvae of some species of these Prionids live in the roots and trunks of the trees we grow makes them our enemies, and every good orchardist knows that the only way to get rid of them is to dig them out or stab them with a wire shoved into their burrows.

This fellow bit savagely at a pencil, and when he finally caught hold, I lifted him up as one does a bull dog, and he hung there almost as long.

This guy bit down hard on a pencil, and when he finally got a grip, I picked him up like you'd lift a bulldog, and he stayed there for nearly as long.

 

ONE OF THE LONGICORN BEETLES

One of the longhorn beetles

(Orthosoma brunneum, Forst.)

(Orthosoma brunneum, Forst.)

At first glance this longhorn might pass for a Prionus, but its antennæ are very different and the shape of its broad collar or prothorax is not the same. To a trained eye they could never be confused, which cannot be said of all beetles! In fact there is perhaps no group of living organisms which scientific men have more difficulty in classifying than the beetles, unless it be the lichens on the stones and trees. Their differences are so minute and their grub lives so obscure that they have sometimes to be bred in order to determine their relationships.

At first glance, this longhorn might look like a Prionus, but its antennae are quite different, and the shape of its wide collar or prothorax isn’t the same. To a trained eye, they could never be mistaken for one another, which can't be said for all beetles! In fact, there might be no other group of living organisms that scientists find more challenging to classify than beetles, unless it’s the lichens on stones and trees. Their differences are so tiny, and their larval stages so hidden, that they sometimes have to be bred in order to figure out their relationships.

 

AN AMERICAN SCARAB

AN AMERICAN SCARAB

(Copris carolina, Linn.)

(Copris carolina, Linn.)

I cannot help wondering what one of the priests of ancient Egypt would think of this picture of a New World relative of his sacred scarab. To me there has always been something strangely beautiful in the veneration which the great Egyptian race has shown for thousands of years towards the humble, industrious beetle which spends its life in the droppings from Egyptian cattle.

I can't help but wonder what an ancient Egyptian priest would think of this image of a New World counterpart to his sacred scarab. To me, there has always been something oddly beautiful in the respect that the great Egyptian civilization has paid for thousands of years to the modest, hardworking beetle that lives in the dung of Egyptian cattle.

Go to Gizeh, and look at the images of the scarab beetle carved from the rarest stories the lapidary could find, mounted in the loveliest gold settings he could fashion, and reflect that the ladies of the court wore these dung beetles around their necks and were buried with them on.

Go to Gizeh and check out the carvings of the scarab beetle made from the rarest stones the jeweler could find, set in the most beautiful gold designs he could create, and think about how the ladies of the court wore these dung beetles around their necks and were buried with them on.

Was this veneration of the scarab as old, almost, as the race, and did it come with the race into its civilization, or did it arise as the whim of some great Pharaoh?

Was this reverence for the scarab as ancient, almost, as the people themselves, and did it enter their civilization with them, or did it emerge as the fancy of some powerful Pharaoh?

It is said that somewhere with this veneration there was included a symbolism. The living scarab is a tumble bug, the female makes a ball of dung much larger than herself and either with her shovel pointed nose, or else standing on her head with her hind legs on the ball, she either pushes or pulls the ball along until she finds some suitable place in which to dig a hole and bury this ball so that later she may consume it at her ease. It has been suggested that some Egyptian astronomer, watching the rolling ball, may have suggested an analogy with the movement of the heavenly bodies—with the traveling of the moon around the earth. For we must not forget that in those days the wonder of the heavens was fresh and new and the idea of world-balls of matter was a subject of intense intellectual excitement.

It is said that somewhere in this reverence, there was a deep symbolism. The living scarab is a dung beetle—the female creates a ball of dung much larger than herself, and using her pointed nose or by standing on her head with her back legs on the ball, she either pushes or pulls it along until she finds a suitable spot to dig a hole and bury the ball for later consumption. Some have suggested that an Egyptian astronomer, observing the rolling ball, might have drawn an analogy with the movement of celestial bodies—like the moon orbiting the earth. We must remember that during that time, the wonders of the heavens were new and fresh, and the concept of world-balls of matter sparked intense intellectual excitement.

But there was yet another reason for the veneration of the Egyptians. The fact that these beetles suddenly disappeared into the ground and that later they appeared again was taken as proof of a future life.

But there was another reason for the Egyptians' reverence. The way these beetles suddenly vanished into the ground and then reappeared later was seen as evidence of an afterlife.

It seems to me that we can take a lesson from the ancient Egyptians and see in things as insignificant as the beetles of manure the greatness of the world of change and really feel the wonder of it all.

It looks like we can learn from the ancient Egyptians and recognize the greatness in even the smallest things, like dung beetles, and truly appreciate the wonder of this ever-changing world.

It is a pity, but I have to admit that this American species is not a “tumble bug,” but contents herself with digging holes, filling them with manure and laying her eggs on it, instead of rolling a well-made ball to some special place as her Egyptian cousin does.

It’s unfortunate, but I have to admit that this American species is not a “tumble bug.” Instead, she just digs holes, fills them with manure, and lays her eggs on it, rather than rolling a perfectly shaped ball to a specific spot like her Egyptian cousin does.

The mother scarab, unlike every other beetle, lives to see her children grow up, indeed she produces two families of little scarabs.

The mother scarab, unlike any other beetle, gets to watch her children grow up; in fact, she raises two families of little scarabs.

 

THE TWELVE-SPOTTED CUCUMBER BEETLE

The 12-Spotted Cucumber Beetle

(Diabrotica duodecim punctata, Oliv.)

(Diabrotica duodecim punctata, Oliv.)

There are few of our insect enemies which do their destructive work more rapidly than do the cucumber beetles. Every child in the South who has left his cucumber hills unscreened knows this, for he has found them some morning literally eaten up over night by the spotted or striped yellow-green cucumber beetles.

There are few of our insect foes that do their damage as quickly as the cucumber beetles. Every kid in the South who has left their cucumber plants unprotected knows this, since they've discovered one morning that their crops were practically devoured overnight by the spotted or striped yellow-green cucumber beetles.

The puzzle is, where do they come from so suddenly? It is as though they were waiting for cucumbers to come up, and this is pretty nearly true, for the adults have wintered in the leaves and rubbish of the garden and are all ready to concentrate on the plantlets in the spring.

The mystery is, where do they come from all of a sudden? It’s like they were just waiting for the cucumbers to grow, and that's almost true, because the adults have spent the winter in the leaves and debris of the garden and are all set to focus on the new plants in the spring.

Unlike so many pests, which are content to trouble us only during a part of their existence, this twelve-spotted cucumber beetle is our enemy all its life long, for it spends its larval life eating the roots of corn and other field crops.

Unlike many pests that only bother us for part of their lives, this twelve-spotted cucumber beetle is our enemy for its entire lifespan, as it spends its larval stage feeding on the roots of corn and other field crops.

It is a wide-spread pest, with many relatives quite as bad as it is, and not only does it eat up the young and defenseless cucumbers and the roots of the corn, but it is the carrier of a germ infection of a serious nature to the cucumber. My friend, Dr. Erwin F. Smith, informs me that its kind has infested large areas in the South with this disease and dashed the hopes of thousands of boys who, instead of feasting on the melons they have planted with such care, must stand helplessly by and watch the leaves and flowers wilt and the vines decay. It must be remembered that this is a winged carrier of disease and anyone who still fails to understand the speed of travel of an epidemic had better watch the cucumber beetles busy spreading this destructive germ disease. A single beetle feeding on a diseased leaf can carry on its jaws enough germs to infect every melon or cucumber plant in a neighboring field, and that, too, in a single day.

It’s a common pest, with many close relatives that are just as harmful. Not only does it devour the young and defenseless cucumbers and the roots of corn, but it also carries a serious germ infection affecting cucumbers. My friend, Dr. Erwin F. Smith, tells me that its species has infested large areas in the South with this disease, shattering the hopes of thousands of kids who, instead of enjoying the melons they planted with care, have to stand by helplessly and watch the leaves and flowers wilt while the vines decay. It's important to remember that this is a winged carrier of disease, and anyone who doesn’t understand how quickly an epidemic can spread should pay attention to the cucumber beetles actively spreading this destructive germ disease. A single beetle feeding on a diseased leaf can carry enough germs in its jaws to infect every melon or cucumber plant in a nearby field, all in just one day.

 

ONE OF THE SAWYERS

ONE OF THE SAWYERS

(Monohammus titilator, Fab.)

(Monohammus titilator, Fab.)

While standing on a street corner waiting for a street-car one day last summer my attention was attracted to this beautiful squirrel-gray creature at my feet. It was so evidently ill that, as I picked it up, I began to examine it to find out what was the matter. Clustered on its neck, out of reach of its feet or jaws were whitish bodies which evidently did not belong to its external skeleton but were probably the eggs of what I took to be some parasite whose growth within the body of the beast had brought about its pitiable condition. These are just visible between the creature’s “horns” in the photograph. It was, in other words, a sick insect.

While waiting for a streetcar on a corner last summer, I noticed this beautiful gray squirrel lying at my feet. It was clearly unwell, so as I picked it up, I started to check it for any issues. On its neck, out of reach of its feet or mouth, were small whitish masses that clearly didn’t belong to its body; they were likely the eggs of some parasite that had caused its sad condition. You can just see them between the creature’s "horns" in the photo. In other words, it was a sick insect.

It is because biologists see these parasites so plainly all down through the scale of living things that they are so sceptical of accepting any other cause of human disease until all possibility has been excluded of its being caused by some parasite or other, too small to be seen even by using the best microscopes.

It’s because biologists clearly observe these parasites across the entire spectrum of living beings that they are so skeptical about accepting any other causes of human disease until every possible chance of it being caused by some tiny parasite, too small to be seen even with the best microscopes, has been ruled out.

My sympathy for this long-horned beetle would be keener did I not read that its larval self is spent inside the wood of the pines and firs of our forests, doing great damage to them.

My sympathy for this long-horned beetle would be stronger if I didn't know that its larvae live inside the wood of the pines and firs in our forests, causing significant damage to them.

When one is puzzled to know why any living thing should be burdened by such antler-like antennæ, let him remember the peacock’s tail and the bird of paradise’s plumage and be content to know that the laws of evolution are not yet fully known, and that, given time and growth, almost any form can be evolved.

When someone is confused about why any living thing should have such antler-like antennae, they should think about the peacock's tail and the bird of paradise's feathers and accept that the laws of evolution aren’t completely understood yet, and that, with time and growth, almost any form can evolve.

TWO-WINGED INSECTS

Bugs with two wings

(Diptera)

(Flies)

Years ago in Berlin, my German landlady called me in as an expert to decide a controversy between her children and herself as to whether a frog had four legs or six. It seemed strange to me then that a grown-up woman should not know the number of a frog’s legs. Yet there will be many who read these pages who do not know how many wings a fly has. And flies are much more important than frogs.

Years ago in Berlin, my German landlady asked me to step in as an expert to settle a debate between her kids and herself about whether a frog has four legs or six. It seemed odd to me at the time that an adult woman wouldn't know how many legs a frog has. Yet there are plenty of people reading this who might not know how many wings a fly has. And flies are way more important than frogs.

In fact the mosquito and the house fly, both included in the order of the flies, probably cause more deaths and are more dangerous to human life than any other creatures in the world.

In fact, the mosquito and the house fly, both part of the fly order, likely cause more deaths and pose a greater threat to human life than any other creatures in the world.

These portraits are of a few only of the vast myriads of forms of two-winged insects which haunt the world. Were I to photograph just one individual of each different species which inhabit the globe, I would have to spend a lifetime doing it, and when it was finished it would make five hundred volumes about the size of this one.

These portraits are just a small selection of the countless forms of two-winged insects that exist in the world. If I were to photograph one individual from each different species on the planet, it would take me a lifetime to complete, and when it was done, it would fill five hundred volumes about the size of this one.

There should never be the slightest difficulty in telling a fly from other insects for there are no other two-winged forms.

There should never be any difficulty in distinguishing a fly from other insects because there are no other two-winged types.

Although the flies are sucking insects, their beaks lap up liquid food and are not at all like the beaks of the bugs. In the great majority of flies, the beaks resemble a trunk with curious fleshy folds or lips. It is true some species, like the mosquito, have long, sharp-pointed stylets which, working up and down, puncture the skin of plants and animals.

Although flies are sucking insects, their mouthparts lap up liquid food and are completely different from those of bugs. In most flies, the mouthparts look like a trunk with unusual fleshy folds or lips. It's true that some species, like mosquitoes, have long, sharp stylets that move up and down to pierce the skin of plants and animals.

The larval forms of many flies are maggots, those squirming, often almost headless creatures that abound in rotting carcasses or decaying matter of all kinds, and this is one of the reasons why less is known about the flies than about some others of the insect world which have selected less revolting birthplaces.

The larval forms of many flies are maggots, those wriggling, often nearly headless creatures that are found in rotting carcasses or decaying materials of all sorts. This is one reason why less is known about flies compared to some other insects that prefer less disgusting breeding grounds.

Of course, in such a gigantic family no general rules apply, and still, a maggot, whether in an orange or a dead horse, is most likely to be the larva of a diptera or two-winged insect.

Of course, in such a huge family, no general rules apply, and yet, a maggot, whether in an orange or a dead horse, is most likely the larva of a fly or two-winged insect.

 

THE CRANE FLY

The crane fly

(Limnobia sp.)

(Limnobia sp.)

Every lover of the autumn woods must have noticed on some still October day, in the little clearings in the woods, these awkward, long-legged flies which, frightened by the approach of a human being, gather their ungainly hind legs together behind and their forelegs in front of them and slowly and laboriously flutter upward into the sunlight. They are well-named, these creatures, “the crane flies,” for their legs are as long and apparently much more useless than those of the crane. In fact some entomologists have expressed themselves as wondering why they have such legs at all for they are so fragile that they break at the slightest touch.

Every fan of the autumn woods must have noticed on a calm October day, in the small clearings of the forest, these awkward, long-legged flies that, scared by the approach of a person, pull their clumsy hind legs together behind them and their forelegs in front, and then slowly and clumsily flutter up into the sunlight. These creatures are aptly named “crane flies,” as their legs are as long and seemingly even more useless than those of a crane. In fact, some entomologists have wondered why they even have such legs at all, since they are so fragile that they break at the slightest touch.

They belong to a family with a thousand species in it and perhaps the most peculiar thing about them is that some forms of the family live and fly about when there is snow on the ground. This is a very rare exception in the insect world.

They belong to a family with a thousand species, and one of the strangest things about them is that some members of the family live and fly around even when there’s snow on the ground. This is a very rare exception in the insect world.

 

AN INSECT HAWK: ONE OF THE ROBBER FLIES

AN INSECT HAWK: ONE OF THE ROBBER FLIES

(Erax æstuans, Linn.)

(Erax æstuans, Linn.)

Her strong, spiny legs, her powerful body filled with strong wing muscles, and her sharp beak, make this robber fly one of the most dreaded enemies of the other winged insects for, like the hawk among the birds, she pounces on them in their flight and tears them to pieces with her beak, sucking the blood from them as she carries them in the air. A single one of these insect hawks, or robber flies, as they are called, has been known to catch and devour as many as eight moths in twenty minutes.

Her strong, spiky legs, powerful body with well-developed wing muscles, and sharp beak make this robber fly one of the most feared predators of other flying insects. Like a hawk among birds, she swoops down on them mid-flight, tearing them apart with her beak and drinking their blood as she carries them through the air. A single one of these insect hawks, or robber flies, can catch and eat as many as eight moths in just twenty minutes.

These robber flies are fearless creatures, for they attack and kill bumble bees and wasps and even, it is said, that monster demon, the dragon-fly. Tiger beetles, too, are said to fall a prey to this insect hawk.

These robber flies are bold creatures, as they attack and kill bumblebees and wasps, and it is even said that they go after that fearsome dragonfly. Tiger beetles are also believed to be victims of this insect hawk.

Its other or larval self is also predaceous, boring into beetle larvæ in the ground.

Its other or larval form is also predatory, burrowing into beetle larvae in the soil.

 

A ROBBER FLY

A Robber Fly

(Dasyllis grossa, Fab.)

(Dasyllis grossa, Fab.)

When I learned that this powerfully winged, hairy fly tears beetles’ wings from off their backs with that wedge-shaped beak of hers, and sucks the blood of bees and wasps, it gave me a different idea of the great fly family, which hitherto I had thought was made up of defenseless creatures like the house fly.

When I found out that this strong, hairy fly rips the wings off beetles with her wedge-shaped beak and drinks the blood of bees and wasps, it changed my view of the fly family, which I had previously thought consisted of defenseless creatures like house flies.

Of all the insects we have photographed, few have seemed to be more thoroughly fearless or more ugly than the robber flies. I have never seen one capture and devour a creature larger than itself, but it must be as thrilling an adventure as to see a dragon-fly devour a gnat, or a spider pounce upon the prey entangled in its net.

Of all the insects we've photographed, few appear to be as fearless or as ugly as the robber flies. I've never seen one catch and eat something bigger than itself, but it must be just as exciting to watch as seeing a dragonfly catch a gnat or a spider pounce on its prey caught in its web.

 

ANOTHER VIEW OF THE ROBBER FLY

ANOTHER VIEW OF THE ROBBER FLY

(Dasyllis grossa, Fab.)

(Dasyllis grossa, Fab.)

At first it looked as though this creature had two heads, one at each end of its body, but the great facet eyes, of which only one can be seen in the photograph, make it clear which is the head and which the egg-laying end of this strange, fearless robber of the air.

At first, it seemed like this creature had two heads, one at each end of its body, but the large compound eyes, of which only one is visible in the photo, make it obvious which end is the head and which is the egg-laying end of this unusual, fearless thief of the skies.

Just why it is called a robber fly when it really doesn’t rob at all, but kills, is a mystery to me.

Just why it's called a robber fly when it doesn't actually rob but kills is a mystery to me.

 

ONE OF THE LARGE ROBBER FLIES

ONE OF THE LARGE ROBBER FLIES

(Mallophora sp.)

(Mallophora sp.)

This robber fly is not so quick nor so savage as many of its family. It waits for some slow moving insect to come along then pounces upon it.

This robber fly isn't as fast or fierce as many of its relatives. It waits for a slow-moving insect to come by and then leaps on it.

It probably breeds in decaying wood, although this is not certainly known, and it is very difficult to breed them artificially.

It likely breeds in decaying wood, though this isn't confirmed, and it's very challenging to breed them artificially.

To the economic entomologist the ability to breed these monsters in captivity is one of the most important factors in studying out their life histories, as they are called, their various stages, the plants they feed on, their habits of moulting, of breeding and of feeding their young.

To the economic entomologist, the ability to breed these creatures in captivity is one of the most important factors in studying their life histories, including their various stages, the plants they feed on, and their habits of molting, breeding, and feeding their young.

 

ONE OF THE WORST OF THE ROBBER FLIES

ONE OF THE WORST OF THE ROBBER FLIES

(Deromyia)

(Deromyia)

This creature is very savage and pounces upon even large sized insects, paralyzing them instantly by a sting of its poisoned beak.

This creature is very fierce and attacks even large insects, instantly paralyzing them with a sting from its poisonous beak.

 

THE CULEX MOSQUITO

THE CULEX MOSQUITO

(Culex sp.)

(Culex species)

The flat white wings of this long-legged creature, vibrating rapidly in the air, make what everyone will agree is the most annoying sound in the world. They make the mosquitos’ hum. The cigar-shaped abdomen is striped like a convict’s jacket. As a boy there was to me a peculiar fascination in watching that abdomen pinken and turn red along its sides as it filled with blood sucked from my hand.

The flat white wings of this long-legged creature buzz quickly in the air, creating what everyone agrees is the most irritating sound ever. They produce the same hum as mosquitos. Its cigar-shaped abdomen is striped like a prisoner's jumpsuit. As a kid, I found it strangely captivating to watch that abdomen turn pink and then red along its sides as it filled with blood taken from my hand.

The large eyes compose almost the entire head of a mosquito and in some species they are of an emerald green hue. Straight out in front, close together, curved downward at the tip, are two antennæ furnished with delicate hairs arranged like a bottle brush. With these the creature hears the love hum of its mate and probably scents also the neighborhood of any warm-blooded animal.

The large eyes make up almost the entire head of a mosquito, and in some species, they're a striking emerald green. Right out in front, close together and curved downward at the tips, are two antennae covered in fine hairs that resemble a bottle brush. With these, the mosquito can hear the mating hum of its partner and likely detects the presence of any warm-blooded animals nearby.

Were this a male, instead of a female, these hairs would be much longer and there would be many more of them—they are the smelling organs of the creature and the hearing organs, too, being set into vibration by sound waves of a certain rate. It is important to remember this, for only the females are bloodthirsty. The long, slender proboscis projecting from the head, downward, is furnished with sharp, piercing stylets which, by working up and down, cut their way through the skin. Ordinarily the males and females both are content with sap of plants and fruits as their food, and blood does not seem to be a necessary part of their diet. It is curious that what is supposed to be merely an acquired habit of the female only, of an insignificant little fly, should mean so much to mankind.

If this were a male instead of a female, these hairs would be much longer and there would be a lot more of them—they are the sensory organs of the creature and also serve for hearing, vibrating in response to certain sound waves. It's important to keep this in mind, as only the females are bloodthirsty. The long, slender proboscis extending downward from the head has sharp, piercing stylets that move up and down to cut through the skin. Normally, both males and females are satisfied with the sap of plants and fruits as their food, and blood doesn't seem to be a necessary part of their diet. It's interesting that what is thought to be just a learned behavior of the female of a seemingly insignificant little fly could have such a big impact on humanity.

Just why a mosquito bite is poisonous is still a matter of question—the suggestion has been made that since both male and female really live on plants, the fluid which the female injects is for the purpose of preventing the plant juice from coagulating during the process of sucking and merely happens to be irritating to warm-blooded animals.

Just why a mosquito bite is poisonous is still up for debate—the idea has been put forward that since both male and female mosquitoes primarily feed on plants, the fluid the female injects is meant to keep the plant juice from clotting while she feeds, and it just happens to irritate warm-blooded animals.

There are three hundred different species of these creatures already described and fortunately this one, a species of culex, is not responsible, so far as known, for the carrying of any human disease.

There are three hundred different species of these creatures already described, and fortunately, this one, a species of culex, is not known to be responsible for spreading any human diseases.

 

ONE OF THE HARMLESS ANOPHELES MOSQUITOS

ONE OF THE HARMLESS ANOPHELES MOSQUITOS

(Anopheles punctipennis, Say)

(Anopheles punctipennis, Say)

The malarial mosquito, so called, has spotted wings, but otherwise it looks quite like this harmless form from Maryland. This whole tribe of Anopheles differs from the Culex in the length of its mouth feelers, which project from the base of the proboscis and appear in the photograph almost as long as the proboscis itself, whereas in a photograph of the Culex it would appear so short as to seem merely a thickening of the base of the proboscis.

The malarial mosquito, as it’s known, has spotted wings, but it looks quite similar to this harmless version from Maryland. This entire group of Anopheles is different from the Culex in the length of its mouthparts, which extend from the base of the proboscis and seem almost as long as the proboscis itself in the photograph. In contrast, a picture of the Culex would make its mouthparts look so short that they’d just appear as a thickening at the base of the proboscis.

The wildest fancy of the Arabian story-teller is lacking in imagination compared with the story which the facts of modern science have woven about these tiny representatives of the fly family.

The wildest imagination of the Arabian storyteller doesn't compare to the tale that modern science has created about these tiny members of the fly family.

Who could imagine that just because the lady mosquitos, tiring of their usual meal of ripe bananas and plant juices, acquired the habit of sucking blood, vast regions would be devastated and beings millions of times their size would die by thousands. And this, too, not through any real fault of the tiny creatures themselves, but just because some of the persons whose blood they sucked had microscopic wiggling things living in their blood corpuscles, which crawled into the soft throat glands of the mosquito and waited there for a chance to get out into the blood channels of some other human beings.

Who would have thought that just because female mosquitoes, getting bored with their usual diet of ripe bananas and plant juices, started sucking blood, entire areas would be devastated and beings millions of times their size would die in the thousands? And this happened not because of any real wrongdoing by the tiny insects themselves, but simply because some of the people whose blood they fed on had microscopic, wiggling parasites living in their blood cells, which crawled into the soft throat glands of the mosquito and waited for a chance to enter the bloodstream of other humans.

When one pictures the grief of desolated homes, death-bed agonies of tossing fever patients, the quarantined vessels at anchor in tropical harbors, yellow flagged, with crews dead or dying, the streets of deserted houses from which all life has gone forever through yellow fever and malaria, there is something ghastly in the picture of the winged lady mosquitos flitting airily from pale-faced patients to ruddy-cheeked happy people, unwitting carriers of death.

When you think about the sorrow of empty homes, the suffering of feverish patients on their deathbeds, the ships in quarantine anchored in tropical ports, marked with yellow flags and with crews who are either dead or dying, the streets lined with deserted houses where all life has permanently vanished due to yellow fever and malaria, it creates a haunting image of the mosquitoes fluttering from the pale-faced patients to the cheerful, bright-faced people, unaware they are carriers of death.

No conquest of science seems more wonderful in its simplicity and more remarkable in its importance than the discovery that the glands at the base of the mosquito’s bill can become diseased and harbor a microscopic parasite, and transform this merely buzzing, annoying insect into one of the most dangerous creatures alive. To Dr. L. O. Howard, the pioneer of economic entomology, is due the great credit for first showing how this creature can be killed by the use of kerosene on the stagnant waters where the females lay their eggs.

No scientific breakthrough seems more amazing in its simplicity and more significant in its implications than the discovery that the glands at the base of a mosquito’s proboscis can become infected and carry a microscopic parasite, turning this just buzzing, annoying insect into one of the deadliest creatures on Earth. Dr. L. O. Howard, a pioneer in economic entomology, deserves the great credit for first demonstrating how to eliminate this creature by using kerosene on the stagnant waters where the females lay their eggs.

 

ONE OF THE BEE FLIES

One of the bee flies

(Sparnopolius fulvus, Wied.)

(Sparnopolius fulvus, Wied.)

No butterfly or any other creature of the air could be more beautiful than this dream of early summer. The black velvet body, into which the sunlight sank and disappeared, the fringe of golden hairs along its sides, the steel gray, myriad-facet eyes of which its head was made, and the delicately formed wings, so thin that the light in passing through them was refracted into rainbow tints, made it seem to me more beautiful than almost any of those gorgeous forms of insect life which sometimes fill the clearings in Brazilian forests.

No butterfly or any other flying creature could be more beautiful than this early summer dream. The black velvet body absorbed the sunlight, the fringe of golden hairs along its sides, the steel gray, multifaceted eyes of its head, and the delicately shaped wings, so thin that light passing through them turned into rainbow colors, made it seem more beautiful than almost any of those stunning insect forms that sometimes fill the clearings in Brazilian forests.

It does seem strange that such a thing as this should live its other life a parasitic grub within the larva of some caterpillar, or in the egg-case of some grasshopper; but so it seems to do. It spends its childhood as a disease, and its mating days as a dainty fly among the nectar-bearing flowers.

It seems odd that something like this lives its other life as a parasitic larva inside the caterpillar or in the egg case of a grasshopper, but that's how it is. It spends its early life as a disease and its adult life as a delicate fly among the nectar-rich flowers.

 

ANOTHER OF THE BEE FLIES

ANOTHER BEE FLY

(Spogostylum simson, Fab.)

(Spogostylum simson, Fab.)

Where you see the carpenter bee you always see these bee flies waiting for the bee to go away from home. When the mother bee is out the female fly goes into the cell of the bee and lays her egg, and when her larva hatches out it eats up the bee’s larva.

Wherever you spot a carpenter bee, you'll often find these bee flies hanging around, waiting for the bee to leave its nest. When the mother bee is away, the female fly enters the bee's cell and lays her egg. When her larva hatches, it feeds on the bee's larva.

 

LARGE SYRPHID FLY

LARGE SYRPHID FLY

(Melesia virginiensis, Dru.)

(Melesia virginiensis, Dru.)

This is a very bright-colored syrphid fly often seen soaring in shadowy places, but what he is doing we do not know. He stays poised in the air and is one of the most beautiful flies we have.

This is a very brightly colored hoverfly often seen hovering in shady spots, but what it's doing we don’t know. It stays suspended in the air and is one of the most beautiful flies we have.

The larvæ of some of the smaller syrphid flies feed upon the larvæ of other insects, aphids in particular; but the larva of this one has never been seen, at least it has never been recognized.

The larvae of some smaller hoverflies eat the larvae of other insects, particularly aphids; however, the larva of this particular one has never been observed, at least it hasn’t been identified.

 

NOT A HOUSE FLY

NOT A HOUSEFLY

(Archytas aterrima, Des.)

(Archytas aterrima, Des.)

This portrait of one of the many species of fly, not a house fly, however, is as different as it is possible to be from the maggot from which it grew. The eggs of the mother fly, deposited in some decaying animal matter, hatch in a few days, and out of these eggs come maggots with rudimentary legs and looking like beasts from another world entirely. In a few days more they reach the limit of their growth, and stop, the tissues break down to a mush and out of this mush-like substance are formed flies with wings and sucking, trunklike mouths just like their mothers. The maggots have no sexual organs, and yet, out of the creamy mass of cells, the sexual organs of the flies are formed as though directed by a force as certain in its effects as the law of gravitation.

This picture of one of the many types of flies, though not a house fly, is completely different from the maggot it developed from. The mother fly lays her eggs in some rotting animal matter, and within a few days, those eggs hatch into maggots with basic legs that look like creatures from another world. After just a few more days, they reach their maximum size and stop growing. Their tissues break down into a mush, and from this mushy substance, flies with wings and trunk-like mouths, just like their mothers, emerge. The maggots lack sexual organs, yet from the creamy mass of cells, the flies' sexual organs form as if guided by a force as certain in its outcome as the law of gravity.

We have been so intent on killing the fly and so afraid of it as the great carrier of human diseases that we have lost sight of one phase of its character, so to speak. Think of having under our eyes animals like these dipteras from which you can breed a new generation in twelve days! And would it not be strange if, from studying the fly, we should learn the meaning of heredity and sexuality, for this is one of the places where the scientists of the day are at work on the problem of inheritance, that problem which, when elucidated, is likely to make more changes in the world of humankind than almost anything which has so far been discovered. The bearing of the fly on the welfare of the world is one of the most spectacular developments of modern times and a tribute to the value of knowing the minutest details of the world in which we live.

We have been so focused on killing the fly and so afraid of it as a major carrier of human diseases that we've overlooked one aspect of its nature, so to speak. Imagine having creatures like these dipteras in front of us, from which you can produce a new generation in just twelve days! Wouldn't it be odd if by studying the fly, we could uncover the secrets of heredity and sexuality? This is one area where today's scientists are investigating the issue of inheritance, a topic that, once understood, could lead to more changes in human society than almost anything else discovered so far. The role of the fly in the wellbeing of our world is one of the most remarkable developments of recent times and highlights the importance of understanding the smallest details of the world we inhabit.

 

THE HORSE FLY

THE HORSE FLY

(Tabanus atratus, Forst.)

(Tabanus atratus, Forst.)

The head of the horse fly appears to be all eyes, and it is no wonder that we can so seldom take it by surprise.

The horse fly's head looks like it's all eyes, and it's no surprise that we can hardly catch it off guard.

Below the oblong, compound eyes are the sharp mouthparts, which in the female are provided with lancets, which enable her to puncture the skin of warm-blooded animals and suck their blood. It is curious that the female should have such habits, while the males are content to lap up nectar from the flowers.

Below the elongated, compound eyes are the sharp mouthparts, which in the female have lancets that allow her to puncture the skin of warm-blooded animals and suck their blood. It's interesting that the female has such habits, while the males are happy to sip nectar from flowers.

This jet black, loud-buzzing creature flew into my laboratory and made so much noise that I was forced to kill her. This photograph of her is nine times her real diameter.

This jet black, loud-buzzing creature flew into my lab and made so much noise that I had to kill her. This photograph of her is nine times her actual size.

She belongs to a large and important family of flies, whose females make the lives of men and animals miserable in many parts of the world by their bites, which form most annoying wounds.

She belongs to a large and significant family of flies, whose females make life tough for both people and animals in many parts of the world with their bites, which create very bothersome wounds.

 

A GREEN-HEADED HORSE FLY

A green-headed horsefly

(Tabanus punctifer, O. S.)

(Tabanus punctifer, O. S.)

There are nearly two hundred species of horse flies in North America, and this creature represents one of the commonest forms. It doubtless hatched out somewhere on the edge of the brook which flows through my place in Maryland, and its larval self fed upon other insect larvæ or on the snails and slugs it found itself among.

There are almost two hundred species of horseflies in North America, and this creature is one of the most common types. It likely hatched somewhere along the edge of the brook that runs through my property in Maryland, and its larval form fed on other insect larvae or on the snails and slugs it encountered.

The bands of iridescent green and copper and purple across its enormous eyes made it a beautiful creature to look upon.

The bands of shimmering green, copper, and purple across its huge eyes made it a stunning creature to behold.

We never used to think the bite of flies was anything worse than annoying, but recently, since we have discovered the danger of letting the germs of disease into the blood streams of our bodies, we have come to see the ghastly possibilities which lie in the piercing mouthparts of these flies. They suck the blood of animals whose blood streams may be swarming with disease germs, and then fly directly to our houses and puncture our skins with a beak covered with these germs which slip off into our veins.

We used to think that getting bitten by flies was just annoying, but lately, since we've realized how dangerous it is to let disease germs enter our bloodstream, we've come to recognize the horrific risks that come with the sharp mouthparts of these flies. They suck the blood of animals that might be full of disease germs, and then they come straight to our homes and pierce our skin with a beak covered in these germs that slip into our veins.

Until we know that the diseases of the birds, and field mice, the coons and ’possums, and all other warm-blooded beasts of a locality are harmless to us, or that it is impossible to transmit them to human beings, it is best to look upon these blood-sucking creatures as winged hypodermic syringes laden with disease.

Until we know that the diseases of the birds, field mice, raccoons, opossums, and all other warm-blooded animals in an area are harmless to us, or that they can't be transmitted to humans, it's wise to see these blood-sucking creatures as flying syringes filled with disease.

It has been suggested that the horse flies carry anthrax, and their bites sometimes cause malignant pustules. They are also under suspicion as carriers of infantile paralysis.

It has been suggested that horse flies carry anthrax, and their bites can sometimes lead to malignant pustules. They are also suspected of being carriers of infantile paralysis.

FEATHERED INSECTS

Feathered bugs

(Lepidoptera)

(Butterflies and Moths)

These are peculiarly the feathered fliers of the insect world, for their wings and their bodies, too, are covered with most remarkable one-celled feathers or scales of gorgeous colors which make of some of them the most brilliant of all living things.

These are uniquely the winged insects of the insect world, as their wings and bodies are covered in amazing single-celled feathers or scales of vivid colors, making some of them the most dazzling creatures alive.

Just what these scales are for is not entirely clear, and will not be, perhaps, until we understand the purpose of the gorgeous coloring itself. There is a theory that these scales help to grip the air in flying.

Just what these scales are for isn’t completely clear, and maybe it won’t be until we understand the purpose of the beautiful coloring itself. There’s a theory that these scales help with grasping the air when flying.

It is a curious coincidence that one of these gorgeously colored creatures should furnish mankind with the material for his own most gaily colored raiment. The silkworm is one of the very few domesticated insects, so to speak, of all the hundreds of thousands of insect species in existence, and a hundred millions of dollars is paid every year for the delicate silk threads unraveled from countless millions of cocoons which the silkworm larvæ have laboriously fashioned around themselves.

It’s an interesting coincidence that one of these beautifully colored creatures provides humans with the fabric for their own brightly colored clothing. The silkworm is one of the very few domesticated insects, so to speak, among the hundreds of thousands of insect species out there, and every year, people spend a hundred million dollars on the fine silk threads unwound from countless millions of cocoons that the silkworm larvae have carefully created around themselves.

To many people, moths are known by what they leave behind—holes in the winter woolens; and butterflies are to them, somehow, things of the sunlight and the summertime. It is worth while to know that these great families of butterflies and moths are not by any means divided equally, that for every family of butterflies there are at least nine of the moths and that the butterflies form but a small proportion of the gaily colored insects of the fields.

To many, moths are recognized by what they leave behind—holes in winter sweaters—while butterflies are seen as bright, sunny creatures of summer. It's important to understand that these large groups of butterflies and moths aren’t evenly divided; for every group of butterflies, there are at least nine varieties of moths, and butterflies make up only a small fraction of the colorful insects you find in the fields.

Perhaps it makes but little difference to the public, who call them all alike, but it is as easy to tell a butterfly from a moth as it is to tell a lizard from a snake, for all the butterflies have club-shaped feelers, or antennæ, whereas the moths do not, and any child of six can learn to tell the two apart.

Perhaps it doesn't make much difference to the public, who treat them all the same, but it's just as easy to tell a butterfly from a moth as it is to tell a lizard from a snake. All butterflies have club-shaped antennae, while moths do not, and any six-year-old can learn to tell the two apart.

No butterfly or moth in its winged state can harm us or our plants. It has no jaws, but keeps itself alive by sucking nectar from the flowers or juices from the fruits or other parts. Its other self, its larva, however, can cause no end of damage. One inconspicuous, brownish form, the codling-moth, no larger than my thumb nail, costs apple growers about ten million dollars every year, while the cabbage moth, the clothes moth, the cutworm and the dreaded gipsy-moth are only a few examples of a gigantic army of voracious larvæ against which man has been struggling ever since he first began to plant seeds in the ground or set out trees for fruit.

No butterfly or moth in its adult form can harm us or our plants. It has no jaws and survives by sucking nectar from flowers or juices from fruits and other parts. However, its larval stage can cause a lot of damage. One inconspicuous, brownish creature, the codling moth, which is no bigger than my thumbnail, costs apple growers around ten million dollars every year. The cabbage moth, the clothes moth, the cutworm, and the infamous gypsy moth are just a few examples of a huge army of greedy larvae that humans have been battling ever since we started planting seeds in the ground or cultivating fruit trees.

 

LARVA OF THE SWALLOW-TAIL BUTTERFLY OF THE SPICE-BUSH

LARVA OF THE SWALLOW-TAIL BUTTERFLY OF THE SPICE-BUSH

(Papilio troilus, Linn.)

(Papilio troilus, Linn.)

Is this, I wonder, an insect make-believe, a caterpillar mask, as it were, to frighten away enemies? The black and white eye-spots are not real eyes, but to a bird they doubtless seem so. Its real eyes are inconspicuous points at each side of the head, too small to appear in the photograph.

Is this, I wonder, an insect disguise, like a caterpillar mask, meant to scare off predators? The black and white eye spots aren’t actual eyes, but to a bird, they probably look like they are. Its real eyes are tiny and barely noticeable on either side of the head, too small to show up in the photograph.

Few of as stop to think, as the beautiful swallow-tail butterfly, gorgeous in its black and yellow painted wings, flits by us, that it is made of sassafras and spice-bush leaves gathered together and ground up. This monster is a leaf-eating creature, its purpose being the accumulation of food material out of which is made inside of it the gorgeous swallow-tail butterfly. It feeds on sassafras and spice-bush leaves, and when the time arrives makes a nest for itself by fastening the edges of a leaf together. In this nest it passes the winter. When spring comes it breaks open the gray shell of the chrysalis, unfolds a pair of black and gold wings with long tails to them, and flies away in the sunshine in search of flowers and a mate. It is then no more like this monster than an eagle is like a hippopotamus, yet after it has flown about, sucking nectar through its long beak, it mates and lays a mass of eggs, out of which hatch again these strange, weird beings.

Few of us stop to think, as the beautiful swallowtail butterfly, stunning in its black and yellow wings, flits by, that it's made from sassafras and spicebush leaves gathered and ground up. This creature relies on leaves for food, which it uses to create the stunning swallowtail butterfly inside it. It feeds on sassafras and spicebush leaves, and when the time comes, it makes a nest by fastening the edges of a leaf together. In this nest, it spends the winter. When spring arrives, it breaks open the gray shell of the chrysalis, unfolds a pair of black and gold wings with long tails, and flies away in the sunshine in search of flowers and a mate. At this point, it is as different from that creature as an eagle is from a hippopotamus. After flying around and sipping nectar through its long beak, it mates and lays a batch of eggs, from which these strange, fascinating beings will hatch again.

 

FORE PART OF A BROWN BUTTERFLY

FORE PART OF A BROWN BUTTERFLY

(Agrynnis cybele, Fab.)

(Agrynnis cybele, Fab.)

It is hard to realize that this is the portrait of the head and fore part of a beautiful brown butterfly.

It’s difficult to believe that this is a picture of the head and front part of a beautiful brown butterfly.

Its head is almost all taken up with the gigantic eyes, which are composed of thousands of tiny facets. The long, trunklike mouth with which it sucks the nectar from the flowers is coiled up like a watch spring. Like shingles on a roof, the scales are fastened in tiers over the broad surface of the wings stretched over the stiff ribs or framework.

Its head is mostly made up of huge eyes, which are made of thousands of tiny facets. The long, trunk-like mouth it uses to suck nectar from flowers is coiled like a watch spring. Like shingles on a roof, the scales are arranged in layers over the wide surface of the wings that are stretched over the stiff ribs or framework.

The white spots are made by hundreds of white scales and the brown blotches by brown scales, and what these scales are for nobody seems to know. Perhaps they help to grip the wind, for they have running lengthwise of them deep and parallel corrugations so small and fine that were a single scale as large as a lady’s opened fan these corrugations would represent its sticks.

The white spots are created by hundreds of white scales, while the brown blotches come from brown scales, and no one really knows what these scales are for. Maybe they help catch the wind, as they have deep and parallel grooves running along them that are so small and fine that if a single scale were as big as a lady's open fan, these grooves would look like its sticks.

The caterpillar from which this splendid creature came is black, with branching spines, and feeds at night on violets and other plants.

The caterpillar that turned into this beautiful creature is black, has branching spines, and feeds at night on violets and other plants.

The graceful beauty of the butterfly, its seemingly happy existence, its life among the flowers, where it sips the nectar that the flowers provide, are all a part of common knowledge.

The elegant beauty of the butterfly, its seemingly joyful life, its time spent among the flowers, where it drinks the nectar that the flowers offer, are all well-known facts.

The real life of the butterfly, however, is not so pleasant as we think. Have you ever found a butterfly hanging beneath a leaf on a cold summer morning drenched with dew and stiff with cold? Have you ever seen one trying to cross a field in a rain-storm and observed it vainly attempting to navigate the conflicting air currents? Where do they roost at night and on rainy days? Where do they come from and what becomes of them? These are matters which it has often taken men years to find out, and even now there are many thousands of species of butterflies which are known only by a preserved specimen caught in its flight by the net of some collector.

The real life of a butterfly, however, isn’t as pleasant as we think. Have you ever found a butterfly hanging underneath a leaf on a cold summer morning, covered in dew and stiff from the cold? Have you ever seen one trying to cross a field in a rainstorm and noticed it struggling to navigate the swirling air currents? Where do they rest at night and on rainy days? Where do they come from, and what happens to them? These are questions that have taken people years to answer, and even now, there are many thousands of butterfly species known only from preserved specimens caught in the nets of collectors.

 

YELLOW BUTTERFLY

Yellow butterfly

(Colias philodice, Gdt.)

(Colias philodice, Gdt.)

The Doctor Jekyll and Mr. Hyde is so complete between the butterfly which flits over the cabbage patch and the velvety green worm that eats holes in the leaves of the cabbages that it is no wonder that for centuries no connection between the two careers of these creatures, seemingly so far apart, was suspected. In general it is true that no moth or butterfly is injurious to plants except in its larval stage, and herein has lain the clever deception which has doubtless protected these gay mating creatures of the air from the systematic attacks of man until quite recent times.

The Doctor Jekyll and Mr. Hyde is so complete between the butterfly that flutters over the cabbage patch and the smooth green caterpillar that eats holes in the cabbage leaves that it's no surprise that for centuries, no one suspected a link between the two lives of these creatures, which seem so different. Generally, it’s true that no moth or butterfly harms plants except in its larval stage, and this has likely been the clever trick that has protected these colorful, mating creatures of the air from systematic human attacks until fairly recently.

This picture shows what every boy and girl should know, that every butterfly has club-shaped feelers or antennæ.

This picture shows what every boy and girl should know: that every butterfly has club-shaped antennae.

It is said of certain species of yellow butterflies that the males give off a pleasing, aromatic odor which is exhaled from the front wings through hundreds of minute, slender scales—scales quite different from those with which the wings and body are covered. This scent, which is so strong that it can be detected by even our blunted olfactory organs if we rub the wings between thumb and forefinger, is supposed to attract the females in some way that is little understood. As among these particular butterflies the male seeks out its mate, it is difficult to understand why it should be the male which has the perfume, since it does not serve to tell the female where her mate is to be found. The inference is that in some way the perfume charms the female.

It’s said that certain species of yellow butterflies have males that emit a pleasant, fragrant scent from their front wings through hundreds of tiny, slender scales—scales that are quite different from those covering their wings and body. This scent is so strong that even our dulled sense of smell can pick it up if we rub the wings between our thumb and forefinger, and it’s thought to attract females in a way that's not completely understood. Since the male actively seeks out his mate among these butterflies, it's puzzling why it’s the male that produces the scent, as it doesn’t help the female locate him. The implication is that somehow, the fragrance captivates the female.

In some species it is the females which give off an odor, and in either case the distances over which these odors extend and are detected by the males or females respectively are analogous to the inconceivable reach of wireless telegraphy. And who knows but the mechanism of these creatures is set to respond to the swiftly traveling ions which make wireless telegraphy possible?

In some species, it's the females that release a scent, and in either case, the distances these scents cover and that the males or females detect are similar to the unimaginable range of wireless communication. Who knows if the way these creatures work is tuned to respond to the fast-moving ions that enable wireless technology?

 

A BABY OF THE SKIPPER BUTTERFLY

A BABY OF THE SKIPPER BUTTERFLY

(Eudamus tityrus, Fab.)

(Eudamus tityrus, Fab.)

There is something fascinatingly strange to me in the babies of the winged butterflies, and I wonder why so many people have an aversion for them? Can there be an instinctive fear of anything that crawls, or is not this fear taught us by unthinking persons? The child is not afraid of the wide-mouthed naked little birds in the nest, or the little blind pink mice, and certainly they are no more innocent looking than the brilliant colored larva of the butterflies or moths.

There’s something intriguingly odd to me about baby butterflies, and I wonder why so many people are put off by them. Is there an instinctive fear of anything that crawls, or is this fear something we learn from thoughtless people? A child isn't afraid of the wide-mouthed, naked little birds in the nest or the tiny blind pink mice, and they certainly don’t look any more innocent than the brightly colored larvae of butterflies or moths.

What helpless things these babies are! They cannot fly, they cannot fight, they can barely see, and even their gait is a hobbled one.

What helpless little beings these babies are! They can't fly, they can't fight, they can barely see, and even their walk is a shaky one.

Their business is to eat, and their jaws must keep busy pretty constantly to fill their stomachs with leaf fragments, for the greater part of the soft, flabby bodies is stomach. They are males and females but which they are you cannot tell until they turn into butterflies.

Their job is to eat, and their jaws have to stay busy pretty much all the time to fill their stomachs with bits of leaves, since most of their soft, squishy bodies are stomach. They are both males and females, but you can’t tell which is which until they transform into butterflies.

Along this creature’s sides, like portholes in an ocean liner, are the breathing pores, nine in number. Most animals which live on land take air in through a single opening into a great cavity through which the blood circulates and is purified, but the caterpillars, and all insects in fact, instead of circulating their blood in and out of a pair of lungs, have, running through their bodies, a labyrinth of air passages, all connected with the outside air by means of breathing pores.

Along this creature's sides, like windows on a cruise ship, are the breathing pores, nine in total. Most land animals take air in through a single opening into a large cavity where blood circulates and gets purified, but caterpillars, and all insects for that matter, instead of circulating their blood through a pair of lungs, have a network of air passages running through their bodies, all connected to the outside air via breathing pores.

This caterpillar’s eyes are poor affairs, and unless you look closely you will not find them, for they are merely a few raised spots, like blisters, beneath the skin on either side of its jaws.

This caterpillar has pretty bad eyesight, and unless you really look closely, you won’t see them, because they’re just a few raised spots, like blisters, under the skin on each side of its jaws.

It has, like the spiders, a spinneret and a reservoir of liquid silk with which, as it outgrows its baby state, it can spin its own arbor of tough silk fibers and hide itself from view while it is changing to a butterfly. If in late summer you will put one of these creatures in a tumbler and watch it for a day or two, you can see it plainly through the glass pouring out the liquid silk in a steady stream, waving its head from side to side. The silk comes from a spinneret which is just behind the jaws and is about the color of thin starch paste. The way it loops back upon itself and flows in curves reminds me most forcibly of the way the pastry cook, with frosting in a paper cornucopia, writes one’s name upon a birthday cake.

It has, like spiders, a spinneret and a reservoir of liquid silk that it uses to spin its own tough silk fibers and hide from view while transforming into a butterfly as it grows from its baby stage. If you take one of these creatures in late summer and put it in a tumbler, you can watch it for a day or two and see it clearly through the glass pouring out liquid silk in a steady stream, moving its head side to side. The silk comes from a spinneret located just behind the jaws and is about the color of thin starch paste. The way it loops back on itself and flows in curves strongly reminds me of how a pastry chef, using frosting in a paper cone, writes your name on a birthday cake.

 

A BUTTERFLY’S MUMMY CASE

A butterfly's chrysalis

One of the most marvelously beautiful of all living creatures lies waiting within this case for the resurrection day, when growth shall split open this polished casket and it shall feel the wings, close packed for weeks, unfold, and, stretching to a hundred times their size, bear it away into the sunshine.

One of the most incredibly beautiful living creatures is waiting in this case for the day of resurrection, when growth will split open this polished box and it will feel its wings, crowded in for weeks, unfold, and, stretching to a hundred times their size, carry it off into the sunshine.

Did the Pharaohs, I wonder, or their wise men, seeing this, model their mummy cases after those which the butterflies make?

Did the Pharaohs, I wonder, or their wise men, seeing this, create their mummy cases based on those made by butterflies?

This is the chrysalis of a butterfly, that wonder of poets since poetry began, that life-stage of the butterfly which our faith and hopes make comparable to our own rest in the tomb from which man in all ages has believed there came a resurrection and another life, no more to be compared with this than the butterfly’s own existence among the flowers is to be likened to his crawling one upon the leaves. And because the minds of many men in seeking to understand, have broken down this beautiful analogy by finding that there is no real decay within the chrysalis, we must not hence conclude they have done more than brush away a fancied similarity. The mystery remains.

This is the chrysalis of a butterfly, a marvel that poets have celebrated since the dawn of poetry, this life stage of the butterfly which our faith and hopes equate with our own rest in the tomb, from which humanity throughout history has believed there comes a resurrection and another life. This new life can’t even be compared to this one, just as a butterfly's existence among the flowers is nothing like its earlier crawling life on the leaves. And because many people, in their quest for understanding, have dismantled this beautiful analogy by discovering that there is no real decay within the chrysalis, we shouldn't conclude they have done more than dismiss a perceived similarity. The mystery remains.

If you should open this butterfly mummy case, lay bare the mummy as it were, you would find a pair of wings in process of formation, a head, a curled-up sucking beak, legs and embryo antennæ, that is, providing it were near the resurrection time. If not, and you had broken in too early, the greater part within the case would be a semi-fluid mass of broken down cell tissues from which the legs and wings and all the other parts are made.

If you were to open this butterfly chrysalis and reveal the mummy inside, you would see a pair of wings developing, a head, a curled-up sucking mouth, legs, and tiny antennae, assuming it's close to the time of transformation. If not, and you opened it too soon, most of what’s inside would be a semi-fluid mass of decomposed cells from which the legs, wings, and all the other parts form.

The portholes along the side lead deep into the body and are probably as necessary to the growing butterfly inside as they are to it when it once emerges. The chrysalis must breathe.

The portholes along the side go deep into the body and are likely just as essential to the growing butterfly inside as they are once it emerges. The chrysalis needs to breathe.

To many people there is much confusion as to what is a chrysalis and what a real cocoon. Every cocoon is a silken case spun by the caterpillar in which it can securely hide while it changes first into the chrysalis and then into its winged and final form. This chrysalis, or pupa, forms within the body skin and some caterpillars do not spin a cocoon at all, but merely rest somewhere away from view, until this strange process has been completed within the out-worn shell. This photograph is of such a chrysalis.

To many people, there is a lot of confusion about what a chrysalis is and what a real cocoon looks like. Every cocoon is a silky case spun by the caterpillar where it can safely hide while it transforms first into the chrysalis and then into its final winged form. This chrysalis, or pupa, forms within the caterpillar's skin, and some caterpillars don’t spin a cocoon at all; they just rest somewhere out of sight until this strange process is complete within their old shell. This photograph shows such a chrysalis.

 

A MOTH

A moth

We commonly picture the moths and butterflies with their wings spread out or else upright in the air, but many moths trail their wings when they alight and escape our notice by their quiet colors. Walk through the grass and you will frighten thousands which, when they alight again, you cannot for the life of you detect upon the grass stems.

We usually imagine moths and butterflies with their wings spread out or upright in the air, but many moths let their wings hang down when they land, making it easy to miss them because of their dull colors. If you walk through the grass, you'll scare off thousands of them, and when they land again, you won't be able to spot them on the grass stems, no matter how hard you try.

There are hardly any butterflies that trail their wings like this and not one of them has beautiful feathery antennæ.

There are barely any butterflies that flutter their wings like this, and none of them have pretty feathery antennae.

 

NOT GOOD TO EAT

NOT SAFE TO EAT

Have you never wondered at the temerity with which certain of these slow-moving, helpless creatures expose themselves to the attacks of their enemies? In a world so full of hungry, winged beings it does seem strange, and when the markings are black and white or some such striking color in contrast with the leaves or bark the temerity seems even more extraordinary, until one learns the simple fact—these creatures are not very good to eat.

Have you ever been amazed at how boldly some of these slow-moving, defenseless creatures put themselves at risk from their predators? In a world filled with hungry, flying creatures, it does seem odd, especially when their markings are black and white or some other vivid color that stands out against the leaves or bark. The boldness seems even more remarkable until you understand a simple fact—these creatures aren't very appetizing.

Not good enough to eat! Supposing that the fly and the mosquito were equipped with some flavor distasteful to the insectivorous birds; if cattle were not good to eat, nor sheep, nor hogs, nor any living, breathing things, what a change there would be in a world like ours! And yet to chemists there is very little difference between some compounds that are good to eat and others that are deadly poison, no greater than that between the poison bitter almond and the sweet one of our dinner table.

Not good enough to eat! Imagine if flies and mosquitoes had a taste that was unpleasant for insect-eating birds; if cows, sheep, pigs, or any living, breathing animals weren't good to eat, what a drastic change there would be in our world! And yet, to chemists, there isn't much difference between some substances that are edible and others that are deadly poisons, no more than the difference between the taste of bitter almonds and the sweet ones we have at dinner.

One cannot help but wonder why it is that when the border-land twixt food and poison is so narrow in the chemistry of the living cell that every creature has not equipped itself with prussic acid enough to preserve itself from its enemies.

One can't help but wonder why, when the line between food and poison is so thin in the chemistry of living cells, every creature hasn't developed enough prussic acid to protect itself from its enemies.

While this protection holds good against many predaceous creatures, there are various birds and even snakes that have found this particular caterpillar not too bad to eat.

While this protection works well against many predatory animals, there are various birds and even snakes that have discovered this particular caterpillar isn’t too bad to eat.

 

A HAIRY SPECTACLE

A HAIRY SHOW

(Euchætes egle, Dru.)

(Euchætes egle, Dru.)

Many of the caterpillars of our fields are striking in their form and color. This one could easily be seen some distance off and might to birds and others of its enemies be what the skunk is to its enemy the dog—a thing to shun.

Many of the caterpillars in our fields are eye-catching in their shape and color. This one could easily be spotted from a distance and might, to birds and other predators, be like what a skunk is to its enemy the dog—a creature to avoid.

In the luxuriance of its “plumage” it, in some respects, reminds one of those fantastic forms of fowls produced by close line breeding, the Hudans, for example, or the long-tailed roosters of Japan.

In the richness of its "feathers," it, in some ways, resembles those amazing types of birds created by intense line breeding, like the Hudans, for instance, or the long-tailed chickens from Japan.

Few creatures that we have photographed have been more beautiful than this black and white larva with its hairs in graceful tufts all over its body. What it eats or what its other self is like, I have not yet been able to find out.

Few creatures we've photographed are more beautiful than this black and white larva with its delicate tufts of hair covering its body. I haven't been able to discover what it eats or what its adult form is like yet.

 

AN UNKNOWN CATERPILLAR

AN UNKNOWN CATERPILLAR

Creatures like this, when they come walking down a garden path, are so striking and so gracefully weird that one would think their forms deserving of more study than they get. There is a reason for this, though, that is not hard to find; they are such transient creatures. A few days in the egg, a week or two as caterpillars, and they pass into their cocoons to emerge as moths or butterflies, and of the two weeks when they are caterpillars, the first part of the time they are too small to make much impression upon us.

Creatures like this, when they stroll down a garden path, are so eye-catching and oddly elegant that you'd think their forms deserve more attention than they receive. There is a reason for this, though, and it's not hard to figure out; they are such fleeting beings. A few days in the egg, a week or two as caterpillars, and then they move into their cocoons to emerge as moths or butterflies. Out of the two weeks they spend as caterpillars, the early days they are too small to make much of an impact on us.

Then too, you cannot collect and keep them as you can the butterflies or beetles, in fact this strange horned beast is still unnamed because its carcass shriveled and faded until it bore so little resemblance to its living self that it could not be identified. It is quite unlike the hickory borer or horned devil, being dark red-brown in color. It takes a skilled taxidermist entomologist to squeeze them out, blow up the skin and mount them in a case, and that is the only way to keep these forms, unless we have found another way in these photographs of them.

Then again, you can't collect and keep them like you would with butterflies or beetles. In fact, this strange horned creature is still unnamed because its body shriveled and faded until it looked so different from its living self that it couldn't be recognized. It's very different from the hickory borer or horned devil, as it's a dark red-brown color. It takes a skilled taxidermist and entomologist to carefully extract them, inflate the skin, and mount them in a display case, and that's the only way to preserve these forms—unless we've discovered another method through these photographs of them.

 

A CATERPILLAR DEVOURED BY A FUNGUS

A CATERPILLAR EATEN BY A FUNGUS

(Apantesis nais attacked by Empusa sp., Dru.)

(Apantesis nais attacked by Empusa sp., Dru.)

One cold morning in early autumn I saw this caterpillar lying so still on the grass stem on which you see it that I thought I could photograph it before it woke up. I picked the grass panicle, but when I came to look closely at the caterpillar I found it was a shriveled corpse and that there were gaping wounds in its sides, filled with the threads of a parasitic fungus; a fungus familiar to me through one of its distant relatives which I spent six months of my life studying, and which lives in the intestines of the frog. There is something ghastly about the slow but resistless working of a fungus in the body of a caterpillar. One cannot help wondering where the plant got in and how the caterpillar felt about it. Was there the horror of finding that it could not be dislodged and the hopelessness of the struggle against it and the impending death and shortening of an already very brief existence?

One cold morning in early autumn, I saw this caterpillar lying completely still on the grass stem that you see it on, and I thought I could snap a photo before it woke up. I picked the grass head, but when I looked closely at the caterpillar, I found it was a shriveled corpse with gaping wounds in its sides filled with the threads of a parasitic fungus—a fungus I'm familiar with through a distant relative I spent six months studying, which lives in the intestines of frogs. There’s something horrifying about the slow but unstoppable process of a fungus taking over a caterpillar’s body. You can't help but wonder how the plant got in there and how the caterpillar felt about it. Did it feel the horror of realizing it couldn’t shake it off, the hopelessness of the struggle against it, and the looming death cutting short an already very brief life?

So these, and seemingly all other creatures, have their diseases, and the studies which men have made and are making upon them in all parts of the world are helping us to understand the causes of those which attack and often conquer human beings.

So these, along with seemingly all other creatures, have their own diseases, and the research that people have done and are doing all around the world is helping us understand the causes of those that affect and often overwhelm humans.

NERVE-WINGED INSECTS

Nerve-winged insects

(Neuroptera)

Neuroptera

There was a time before all living things were classified, when there were no groups of plants or animals or insects. It is something to be proud of that man has grouped the likes together and formed, out of the chaos of living species, a system into which most of them can go like letters into pigeonholes. Is it any wonder that with half a million species in this insect world there should be some groups in which the species forming them seem to have very little likeness to each other? The nerve-winged insects seem to form just such a group, for the principal things they have in common seem to be peculiar nerve-veined wings and blood-thirsty habits.

There was a time before all living things were categorized, when there were no groups of plants, animals, or insects. It’s something to take pride in that humans have grouped similar species together and created, out of the chaos of living organisms, a system into which most of them can fit like letters in filing cabinets. Is it any surprise that with half a million species in the insect world, there are some groups where the species within them seem to have very little in common? The nerve-winged insects appear to be one of those groups, as the main things they have in common seem to be their unique nerve-veined wings and predatory habits.

If we could be quite sure that dragon-flies and scorpion-flies and caddis-flies preyed only upon our foes, we could say with more confidence than we do now, that they are our friends and not our enemies, and that men should find some means by which to help increase the number of them in the world.

If we could be completely sure that dragonflies, scorpionflies, and caddisflies fed only on our enemies, we could confidently claim that they are our allies and not our foes, and that people should find ways to help boost their numbers in the world.

It is conceivable that, as we learn more about them, they may take a much more important place in public esteem, just as insectivorous birds are doing. Perhaps they will come to be protected and their breeding places guarded by the drainage engineers.

It’s possible that, as we learn more about them, they might gain a much more significant role in public admiration, similar to how insect-eating birds are currently viewed. Maybe they will eventually be protected, and their nesting areas will be safeguarded by drainage engineers.

 

THE DRAGON-FLY

THE DRAGONFLY

No dragon of legend could be more blood-thirsty or terrible than this. With four wings like the supporting planes of an aerodrome, it can fly as fast as a railway train. With thousands of eyes crowded together like cells in a honeycomb, forming eye masses that cover most of its head, it can see in all directions at once. With massive jaws and teeth as sharp as needle points, it can pierce and crush the strongest shell of its prey. With its long-jointed spiny legs held out in front like a basket, it rushes through the air, catches and devours its prey and lets the carcass fall to the ground, all without slackening its terrible speed.

No legendary dragon could be more bloodthirsty or terrifying than this. With four wings like the supporting planes of an airport, it can fly as fast as a train. With thousands of eyes packed together like cells in a honeycomb, forming eye clusters that cover most of its head, it can see in all directions at once. With massive jaws and teeth as sharp as needles, it can pierce and crush the toughest shell of its prey. With its long, spiny legs extended in front like a basket, it darts through the air, catches and devours its prey, and lets the carcass fall to the ground, all without slowing down its terrifying speed.

It is hard to realize, as you watch this swiftly moving dragon of the air, that it has spent the first stage of its life as a slowly crawling, ugly water monster lying in wait among the reeds and grasses for some unsuspecting water bug or larva to pass by.

It’s hard to believe, as you watch this fast-moving dragon of the air, that it spent the first part of its life as a slow-moving, ugly water creature lurking among the reeds and grasses, waiting for some unsuspecting water bug or larva to swim by.

The female, as she skims the surface of some pool, drops into the water her clumps of dragon eggs, a thousand at a time, and from these are born the ugly water dragons, which, when come of age, grow wings and, crawling to the surface, split their old skins open, unfold and dry their closely packed wings, and dart away into the sunshine to prey upon the other creatures of the air.

The female, while gliding over a pool, releases her clusters of dragon eggs, a thousand at a time, and from these hatch the unsightly water dragons. Once they reach maturity, they grow wings and, crawling to the surface, shed their old skins, spread and dry their tightly packed wings, and dart off into the sunlight to hunt the other creatures of the sky.

 

THE DRAGON-FLY AND ITS VICTIM

THE DRAGONFLY AND ITS VICTIM

(Macromia sp.)

(Macromia species)

Who would suspect, as one of these dragon-flies darts by him on the roadway, that every few minutes its jaws are crunching some helpless insect caught in its flight?

Who would suspect, as one of these dragonflies zooms past him on the road, that every few minutes its jaws are crunching some unsuspecting insect it has caught mid-flight?

When I caught the dragon-fly whose picture is shown here, I held him by the wings, and, catching a fly that buzzed about the table, dropped it in his claws. Without a moment’s hesitation his mouth opened wide and closed upon the fly. I watched it disappear underneath his great upper lip and almost fancied I could hear its shell crack as the powerful jaws and lower lips turned it around and around in the mouth. A few seconds only, and the sucking throat had drawn out all the blood and the lips threw out a ball-like mass made up of the fly’s wings, legs and crushed body skeleton. Then it opened again for more.

When I caught the dragonfly shown here, I held it by the wings and, grabbing a fly that was buzzing around the table, dropped it into its claws. Without any hesitation, its mouth opened wide and closed around the fly. I watched it disappear beneath its large upper lip and almost thought I could hear its shell crack as the powerful jaws and lower lips turned it around in its mouth. Just a few seconds later, the sucking throat had drawn out all the blood, and the lips expelled a ball-like mass made up of the fly’s wings, legs, and crushed body. Then it opened again for more.

One entomologist has said that in two hours a dragon-fly will eat at least forty house flies, and Doctor Howard says that if starved for food it will eat up its own body.

One entomologist has stated that in two hours a dragonfly can eat at least forty house flies, and Doctor Howard says that if it’s starved for food, it will even eat its own body.

No doubt these dragons of the air are to be counted as among our greatest friends, and in places in the East where life is made a burden by that humming, stinging pest, the mosquito, its presence in great numbers helps amazingly in keeping down the day-flying forms of that insect. It has gone into the Hawaiian Islands with the mosquito and has learned there to breed in the water found on the leaves of lilies growing on dry land.

No doubt these flying dragons are some of our greatest allies, especially in the East, where the irritating and biting mosquito makes life tough. Their large numbers greatly help in controlling the daytime variety of this insect. They have made their way to the Hawaiian Islands alongside the mosquito and have adapted to breed in the water that collects on the leaves of lilies growing on dry land.

Perhaps someone will find a way to domesticate this creature and make it live upon the house flies around the house. As a first step, Needham has fed the larvæ on bits of meat.

Perhaps someone will find a way to domesticate this creature and make it feed on the houseflies around the home. As a first step, Needham has fed the larvae bits of meat.

Sharpe, the British authority, has observed a dragon-fly returning again and again to the same bush, and Westwood believes he saw the same individual hawking for several weeks together over the same small pond.

Sharpe, the British expert, has noticed a dragonfly repeatedly returning to the same bush, and Westwood thinks he saw the same one hunting over the same small pond for several weeks straight.

 

DRAGON-FLY NYMPH MASKED

Dragonfly Nymph Masked

(Libellulid)

Libellulid

As Kellogg says, it must, indeed, be worth more than a week of study in the house to see just once the transformation of one of these mud dragons from the bottom of a pond into a beautiful dragon of the air,—a dragon-fly.

As Kellogg says, it really must be worth more than a week of studying at home to witness just once the transformation of one of these mud dragons from the bottom of a pond into a stunning dragon of the air—a dragonfly.

Of all the strange, weird monsters with which I have ever had to deal, this water one seems somehow weirdest. It reminds me of those sandy-colored, deep-sea fishes which, snuggling under the sand of the sea bottom, wait for their prey to come along and then dart out and seize them with their powerful jaws.

Of all the strange, weird monsters I've ever encountered, this water one seems the strangest. It reminds me of those sandy-colored deep-sea fish that hide under the sand on the ocean floor, waiting for their prey to swim by, and then they dart out and grab it with their powerful jaws.

The mud dragon has a mask which, for the purpose, is certainly the most effective thing one can imagine. Its victims must be greatly surprised to see the mask drop, revealing a sheep-like nose, mouth, and lips, while the mask itself opening out and splitting down the middle, becomes a pair of needle-margined, powerful claws so strong that even fishes are sometimes caught and held by them.

The mud dragon has a mask that is definitely the most effective thing you can think of for this purpose. Its victims must be really shocked when the mask falls away, showing a sheep-like nose, mouth, and lips, while the mask itself splits down the middle and turns into a pair of sharp, powerful claws so strong that they can even catch and hold fish sometimes.

It is strange to think of this dragon concealing its claws by making a shield of them to cover its ugly face while it waits in ambush for its game.

It’s odd to imagine this dragon hiding its claws by using them to create a shield that covers its ugly face while it waits to pounce on its prey.

Its eyes and body are the color of mud and must be very hard to see.

Its eyes and body are the color of mud, making them really hard to spot.

This photograph shows the mask in place, the grinning mouth a long curved slit across the face, while resting on the ground, as one would rest one’s elbow on the table, is the powerful claw arm, so strong that you would find it difficult to pull the mask away, or having done so to keep it down.

This photograph shows the mask in place, the grinning mouth a long curved slit across the face, while resting on the ground, just like one would rest their elbow on a table, is the powerful claw arm, so strong that you would find it hard to pull the mask away, or if you did, to keep it down.

 

DRAGON-FLY NYMPH UNMASKED

Dragonfly Nymph Revealed

(Libellulid)

(Dragonfly)

Pulled down from the mud dragon’s sheep-nosed face, the mask is resting on the ground. It can be stretched out much further and also opened up to form a pair of powerful claws. Along the edge of the mask is a fringe of inward-pointing spines like those which edge the leaf margins of a venus flytrap. The eyes are large and many-faceted and form the blunt-pointed corners of its head.

Pulled off the mud dragon’s sheep-nosed face, the mask lies on the ground. It can be expanded even more and can also be opened up to create a pair of strong claws. Along the edge of the mask is a fringe of inward-pointing spines, similar to those that line the leaf edges of a Venus flytrap. The eyes are big and multi-faceted, forming the blunt-pointed corners of its head.

The under-water battles in which these mud dragons, or dragon-fly nymphs, take part must be something terrible. It is recorded that in Hungary 50,000 young fishes were put into a pond in which enormous numbers of these nymphs occurred and only fifty-four fishes survived. One is not surprised to learn, too, that they will eat each other up.

The underwater battles involving these mud dragons, or dragonfly nymphs, must be truly intense. It has been reported that in Hungary, 50,000 young fish were released into a pond teeming with these nymphs, and only fifty-four fish made it out alive. It's not surprising to discover that they will even eat one another.

On the whole, however, it is doubtful if between the flies and other injurious insects which the dragon-flies destroy in the air, and those larvæ of mosquitos which the water nymphs destroy in the ponds, there is any other family of insects toward which man should feel more indebted than toward the family of the odontata or dragon-flies.

On the whole, though, it's questionable whether there's any other group of insects that humans should be more grateful to than the dragonflies, considering how they eliminate flies and other harmful insects in the air, along with the larval mosquitoes that the water nymphs take out in the ponds.

 

AN ABANDONED DRAGON CASE

AN ABANDONED DRAGON STORY

(Libellulid)

Libellulid

From this muddy outworn shell, left to decay at the bottom of a pool, there came, sometime last summer, a gorgeous, four-winged dragon-fly. A little after dawn, what was once this water nymph or mud dragon, tired perhaps of its mud existence, ready anyway for the transformation, crawled up out of the water upon some stone or stick and waited there for its back to split open up and down. It pulled its soft, boneless legs from their cases, now lying along the abandoned shell, its wings closely packed together from the two cases on its back and its head and jaws from out the broken head shell. Even every air passage running through its body shed its parchment lining.

From this dirty, old shell, left to rot at the bottom of a pool, a beautiful, four-winged dragonfly emerged last summer. Just after dawn, what used to be this water nymph or mud dragon, maybe tired of its muddy life and ready for a change, crawled out of the water onto some stone or stick and waited for its back to split open. It pulled its soft, boneless legs from their cases, now resting alongside the discarded shell, its wings tightly packed together from the two cases on its back, and its head and jaws emerged from the broken head shell. Even every air passage running through its body shed its old lining.

Soft and helpless it crawled away into the grass to wait until its wet, soft outer skeleton should harden and make it possible for the powerful wing muscles to pull against it and for the broad wing films to dry and straighten out. By noon the transformation was doubtless quite complete, and flitting across the pond went the recent inhabitant of this dragon-fly case.

Soft and helpless, it crawled away into the grass to wait until its wet, soft outer shell hardened, allowing the strong wing muscles to work and the wide wing membranes to dry and straighten. By noon, the transformation was definitely complete, and the former resident of this dragonfly case flitted across the pond.

 

THE DAMSEL FLY

THE GIRL FLY

(Agrion maculatum, Beauvois)

(Agrion maculatum, Beauvois)

Most insects’ legs are made to walk with, but those of the dragon-fly are not. They are bunched together so near the head that when the creature alights it can do little more than cling to what it lights upon. Instead, the legs, with their spines, form a perfect basket, open towards the front, and thus become the organs with which flies are caught.

Most insects have legs designed for walking, but dragonflies are different. Their legs are positioned so close to their heads that when they land, they can barely do more than hang onto what they land on. Instead, their legs, with their spines, create a perfect basket that opens toward the front, making them effective tools for catching flies.

This damsel fly, as it is called, is smaller and more delicate than the dragon-fly with quite a different head. It inhabits shrubby woodland and is not often seen. Some of its tropical relatives are creatures of extraordinary fragility and delicacy.

This damsel fly, as it's called, is smaller and more delicate than the dragonfly, with quite a different head. It lives in shrubby woodlands and isn't often seen. Some of its tropical relatives are incredibly fragile and delicate.

Its wings, which move in perfect unison, although distinct, are operated by such ingenious mechanical devices within the body as to have long ago suggested a flying machine, and it is strange how like a dragon-fly Professor Langley’s aerodrome, the first of them all, does look, although of course the aerodrome’s wings were rigid.

Its wings, which move in perfect harmony, though separate, are controlled by such clever mechanical systems inside the body that they have long suggested a flying machine. It’s surprising how much Professor Langley’s aerodrome, the first of its kind, resembles a dragonfly, even though the aerodrome’s wings were stiff.

One realizes what enormous eyes these dragon-flies have when one begins to compare them with the size of the head.

One realizes how huge the eyes of these dragonflies are when you start comparing them to the size of their heads.

 

THE LACE-WINGED FLY AND THE APHIS LION

THE LACE-WINGED FLY AND THE APHIS LION

(Chrysopa sp.)

(Chrysopa sp.)

So fragile and delicate does this creature appear that one can but wonder how it exists in the jungle of the grass. It has a disagreeable odor, it is said, and this is perhaps the reason that it holds its own, for it flies so slowly and is so conspicuous that it would otherwise fall a prey to every insectivorous bird and dragon-fly.

So fragile and delicate does this creature seem that one can only wonder how it survives in the jungle of grass. It’s said to have an unpleasant smell, and that might be why it manages to stick around, because it flies so slowly and is so noticeable that it would otherwise be easy prey for every insect-eating bird and dragonfly.

Its other self is the Aphis Lion, a wingless but very active creature which hunts for plant lice and when it finds one punctures it with its mandibles, raises it in the air and lets the blood trickle down into its mouth. It sucks eggs, too, and, shameless creature that it is, it sucks those of its own species, or would, at least, if the mother instinct had not taught the winged females to lay their eggs on the ends of long, slender, stiff stems which the undiscriminating larvæ cannot climb, much as a human mother puts the pot of jam on the top shelf where the children cannot get it.

Its other self is the Aphis Lion, a wingless but very active creature that hunts for plant lice. When it finds one, it punctures it with its mandibles, lifts it into the air, and lets the blood drip down into its mouth. It also sucks eggs, and, shameless as it is, it would suck the eggs of its own species if the maternal instinct hadn’t taught the winged females to lay their eggs on the ends of long, slender, stiff stems that the unselective larvae can’t climb—much like a human mother puts the jar of jam on the top shelf where the kids can’t reach it.

 

THE WINGED ANT LION

The Ant Lion

(Myrmeleon immaculatus, De G.)

(Myrmeleon immaculatus, De G.)

As with many of these monsters, it is the other self, the larva of the winged ant lion, which is the fascinating study.

As with many of these creatures, it's the other self, the larva of the winged ant lion, that is the intriguing subject of study.

This winged form merely lays the egg from which hatches out the soft, spindle-shaped young with jaws like pincers. This little creature at once marks out a tiny circle in some dry, sandy place, and begins to dig a pitfall for its prey, the ants.

This winged creature just lays the egg that hatches into a soft, spindle-shaped young one with jaws like pincers. This little being immediately makes a small circle in a dry, sandy area and starts to dig a pit to catch its prey, the ants.

By pitching the sand with its broad, flat head, just as a man who digs a well would pitch out shovelfuls of dirt, the young ant lion excavates a tiny crater in the sand and hides itself in the crater’s pit with its pincers sticking upwards through the fine, loose sand.

By throwing the sand with its wide, flat head, just like a person digging a well would toss out shovelfuls of dirt, the young ant lion creates a small crater in the sand and conceals itself in the crater's pit with its pincers sticking up through the fine, loose sand.

Any child who has jumped into his father’s oat bin and tried to climb up the hillside of tumbling grain, knows how hard it is to get out. If he will imagine a hidden monster waiting with jaws opened at the bottom, he will have some sympathy for the unlucky ant which, slipping upon the rolling sand of the ant lion’s crater slides slowly towards its pit—helped perhaps by dirt thrown on it by the ant lion.

Any kid who has jumped into his dad’s oat bin and tried to climb up the pile of rolling grain knows how hard it is to get out. If he imagines a hidden monster waiting with its jaws open at the bottom, he’ll feel some sympathy for the unlucky ant that, slipping on the shifting sand of the ant lion’s crater, slides slowly toward its pit—maybe even helped by dirt kicked up by the ant lion.

There seems to be no escape, and once within reach, the pincers close on it, and along their grooved inner faces, helped down by special tongue-like licking organs, the blood trickles and is guided to the mouth and thence into the stomach of the lion. And, curiously enough, this stomach is the only organ of digestion which the ant lion has. The stomach has no outlet and everything that is not digested must wait within it until the change of life brings on this winged state, when, like a tiny egg, the gathered excreta of the weeks and even months of feeding is thrown out from the body. Perhaps this strange structure of the beast has something to do with the fact that it can live six months at least without a particle of food.

There seems to be no way out, and once caught, the pincers clamp down on it. Blood trickles along their grooved inner surfaces, helped along by special tongue-like lapping organs, and is directed to the lion's mouth, then into its stomach. Interestingly, this stomach is the only digestive organ the ant lion has. The stomach has no exit, so everything that isn’t digested has to stay inside until it goes through its transformation into a winged state, at which point all the waste accumulated from weeks or even months of feeding is expelled from the body. This unusual feature of the creature might explain why it can survive at least six months without any food.

 

THE SCORPION FLY

The Scorpion Fly

(Panorpa confusa, Westw.)

(Panorpa confusa, Westw.)

When the scorpion fly, standing still, raises above its head that pair of pincers which forms its tail, it seems almost like some two-headed monstrosity.

When the scorpion fly, standing still, lifts that pair of pincers that make up its tail above its head, it looks almost like a two-headed monster.

It is interesting to know that the great Aristotle knew these insects and thought of them as winged scorpions. It is only the males which have these curious tails.

It’s interesting to note that the great Aristotle was aware of these insects and considered them to be winged scorpions. Only the males have these strange tails.

One might easily mistake the long snout for that of some sucking insect, but at the very tip there are two oblong, plate-shaped jaws, each armed with two very sharp teeth which enable the creature to live a carnivorous existence. Although little is yet known about it, the scorpion fly appears, like a hyena, to live chiefly on dead animal matter, although it has been seen to attack injured or helpless insects.

One could easily confuse the long snout for that of some kind of sucking insect, but at the very end, there are two flat, plate-like jaws, each equipped with two very sharp teeth that allow the creature to have a meat-eating lifestyle. Although not much is known about it yet, the scorpion fly seems to mainly feed on dead animal matter, like a hyena, though it has been observed attacking injured or defenseless insects.

 

A SOLDIER TERMITE

A soldier termite

(Termes flavipes, Koll.)

(Termes flavipes, Koll.)

Although too poor a photograph, perhaps, to be worthy of a place in this collection, I have a sentimental reason for its reproduction here, for it brings to mind the days I spent in Java lying flat on the ground studying the mushroom gardens of its tropical relatives.

Although it may be too poor of a photograph to deserve a spot in this collection, I have a sentimental reason for including it here, as it reminds me of the days I spent in Java, lying flat on the ground and studying the mushroom gardens of its tropical relatives.

There are few more interesting creatures than these termites. They have been mushroom eaters and mushroom growers for thousands of years. They have their kings and queens, their workers and their soldiers, and they build gigantic caverns and tall mounds out of earth and half-digested wood.

There are very few creatures more fascinating than these termites. They've been eating and cultivating mushrooms for thousands of years. They have their kings and queens, workers and soldiers, and they construct enormous tunnels and tall mounds from soil and partially digested wood.

They tear to pieces and reduce to powder the dead trees of the tropical forests.

They tear apart and crush the dead trees of the tropical forests into powder.

Their nymphs, the young kings and queens, are winged and perform a marriage flight, then, tearing off their own wings, they settle down to form a home of dirt and start a new and numerous colony.

Their young rulers, the nymphs, have wings and go through a mating flight, then, tearing off their own wings, they settle down to build a home from dirt and create a new, large colony.

They seem to be upon a higher plane of social life than are the true ants, with which they are not in any way related, for the members of a species seem all to be quite friendly towards each other even though they may come from widely different nests. This is never true of ants.

They appear to be on a higher social level than true ants, with which they have no connection, because members of their species seem to get along well, even if they come from very different nests. This is never the case with ants.

Their queens are strange, egg-laying machines as large as a man’s thumb, and they lay an egg a second for nobody knows how long.

Their queens are peculiar, egg-laying machines about the size of a person's thumb, and they lay an egg every second for an unknown period of time.

The workers shun the light and make long, covered ways of mud in which they go from place to place. With their untiring energy they honeycomb the building timbers of houses and ships in the tropics, making mere hollow shells of them, and so causing disasters of all kinds.

The workers avoid the light and create long, covered pathways of mud to move around. With their endless energy, they burrow into the wooden structures of houses and ships in the tropics, turning them into just empty shells, leading to all sorts of disasters.

Some of their soldiers have mandibles so strong and sharp as to drive away all animals and make them formidable enemies of man, and some have squirt guns in their heads with which they spray their enemies with an obnoxious fluid.

Some of their soldiers have jaws that are so strong and sharp that they can scare off all animals and make them tough foes for humans, and some have squirt guns in their heads that they use to spray their enemies with a nasty liquid.

This tiny representative is all we have in Maryland, but though so small and quiet in his habits he does great work among the pine stumps of my place. The stump of any pine that is felled one year can be kicked out the next, honeycombed with the chambered runways of this creature. Beware lest any pine timbers of your house are near the ground and become infested with termites.

This little guy is all we have in Maryland, but even though he’s small and keeps to himself, he does a lot of work among the pine stumps on my property. Any pine stump that's cut down one year can be kicked out the next, full of the burrows made by this creature. Be careful if any pine wood in your house is close to the ground, as it could get infested with termites.

THE STINGING INSECTS

The stinging bugs

(Hymenoptera)

Hymenoptera

This order is another one in which it takes an entomologist to see the characteristic likenesses in the various species of insects composing it. They all have membranous wings, and all the females have either a saw, an ovipositor or a sting at the tip of the abdomen. One may say, indeed, that practically all the stinging insects are in this order.

This order is another case where it takes an entomologist to recognize the similar features in the different species of insects that belong to it. They all have thin wings, and all the females have either a saw, an ovipositor, or a sting at the end of their abdomen. It could be said that almost all stinging insects fall into this order.

Bees, wasps, ants, gall flies, saw flies, and ichneumon flies are Hymenoptera, the ants coming into this membranous winged order because the males and females are winged for the marriage flight, and lose them only after this is over.

Bees, wasps, ants, gall flies, sawflies, and ichneumon flies are part of Hymenoptera. Ants belong to this winged order because both males and females have wings for their mating flight, and they lose these wings only after it’s finished.

This is considered the highest order of insects because it contains members with the most marvelously developed instincts of any creatures in the world, insects whose habits, skill and industry excite our admiration and wonder. Whether they live in colonies with highly developed social states, or whether they live the lives of solitary hermits, their industry and sacrifice to keep alive and perpetuate their kind, are things that make us wonder whether, after all, we have the right to call ourselves the most altruistic of living creatures.

This is seen as the highest order of insects because it includes members with the most amazing instincts of any creatures in the world— insects whose behaviors, skills, and hard work inspire our admiration and awe. Whether they live in colonies with complex social structures or lead solitary lives, their hard work and dedication to survival and ensuring the continuation of their species make us question whether we truly have the right to call ourselves the most selfless of living beings.

It is around these Hymenoptera that centers the great question of what instinct is, and how it differs from intelligence. We cannot help but feel that it is memory of some kind, not necessarily like the memory of our own brains, but a race memory, transmitted in the almost microscopic egg laid by the mother before she dies.

It is around these Hymenoptera that the big question of what instinct is and how it differs from intelligence revolves. We can’t help but feel that it’s some form of memory, not necessarily like the memory of our own brains, but more like a collective memory, passed down in the almost microscopic egg laid by the mother before she dies.

The instinct of the bee, or wasp, or ant is quite a different kind of thing from reason. Since these creatures have stood still in their development, or at least have changed but little since tertiary times, it is quite possible that their present state represents the highest type of evolution along the lines of instinct. The power to reason, to meet a new emergency, are things which came much later in the development of the world, and man, the creature having them in the highest degree, seems destined to control all other creatures in the end.

The instinct of the bee, wasp, or ant is really different from reason. Since these creatures haven't changed much since ancient times, it's likely that their current state reflects the highest level of instinctual evolution. The ability to reason and adapt to new situations came much later in the world's development, and humans, who possess this ability to the greatest extent, seem destined to dominate all other creatures in the end.

 

THE PORTRAIT OF A BALD-FACED HORNET

THE PORTRAIT OF A BALD-FACED HORNET

(Vespula maculata, Linn.)

(Vespula maculata, Linn.)

I wish I could convey to you my sensation when, in hunting for the focus on my ground glass, this creature burst upon my sight. It was as though, exploring in some strange land, I suddenly stood face to face with a beast about which no schoolbook had ever taught me anything. It peered at me out of the gloom of imperfect focus, and it took me some time to realize that I was looking into the eyes of a bald-faced hornet.

I wish I could express to you what I felt when, while trying to find the focus on my ground glass, this creature suddenly appeared in front of me. It was like I was exploring some unfamiliar land and suddenly came face to face with a creature that I had never learned about in any textbook. It looked at me from the shadows of the blurry image, and it took me a while to realize that I was staring into the eyes of a bald-faced hornet.

There is no wild creature in the northern United States that a man will run away from so fast as from a bald-faced hornet.

There’s no wild animal in the northern United States that a person will run away from as quickly as a bald-faced hornet.

At the tip of her flexible armor-plated abdomen is the poison-fed stiletto with which she drives off enemies from the nest or paralyzes her prey.

At the end of her flexible, armored abdomen is the poison-tipped stiletto that she uses to fend off enemies from the nest or to paralyze her prey.

Her six powerful legs are spined to help her, no doubt, in climbing over the smooth surfaces of flowers and twigs. She has two kinds of eyes—three lens-shaped ones on top of her head and two marvelous compound ones composed of hundreds of little lenses, which take up half the head. Just what she uses each kind for is still unknown.

Her six strong legs are spiked to help her climb over the smooth surfaces of flowers and twigs. She has two types of eyes—three lens-shaped ones on top of her head and two amazing compound eyes made up of hundreds of tiny lenses, which take up half her head. What she uses each type for is still a mystery.

From her forehead hang ringed antennæ, which doubtless are the organs with which she scents the presence of her prey, and they may also help her find her way about.

From her forehead hang ringed antennae, which are probably the organs she uses to detect the presence of her prey, and they might also assist her in navigating her surroundings.

Her massive jaws lie below her eyes and look like shears with jagged edges; they are meant for crushing, not for grinding, and with these she tears to pieces bits of wood and cements the particles together with the sticky secretion of her salivary glands, making thus the combs and shelter of her wood-pulp paper nest.

Her huge jaws sit below her eyes and resemble shears with sharp edges; they are designed for crushing, not grinding, and with them she rips apart pieces of wood and binds the fragments together with the sticky fluid from her salivary glands, thereby creating the combs and shelter of her wood-pulp paper nest.

She is an undeveloped female, but with the professional care of a baby’s nurse she tends her sister hornets in the nest. On the wing, from daylight to dark, she scours the country for the flies and other insects with which to feed the young. Of all the fly-destroyers which frequent the house she is perhaps the most efficient, pouncing upon the flies with murderous voracity, tearing off their heads and legs and wings, and macerating their bodies to a pulp to feed the hungry grub-like baby hornets which are hatching out in the paper nest over the front door. Her life, and the life of every other worker, is ended by the autumn, and it is left to a few of the young queens to carry on the species.

She is an immature female, but with the professional care of a nurse, she looks after her sister hornets in the nest. From dawn to dusk, she flies around the area searching for flies and other insects to feed the young. Of all the fly-catchers that hang around the house, she is probably the most effective, swooping down on flies with ruthless eagerness, ripping off their heads, legs, and wings, and grinding their bodies into a pulp to feed the hungry, grub-like baby hornets hatching in the paper nest above the front door. Her life, and the life of every other worker, ends in autumn, leaving only a few young queens to continue the species.

Does this picture represent, I wonder, one of the nightmare visions which haunt the dreams of baby flies?

Does this picture represent, I wonder, one of the nightmare visions that haunt the dreams of baby flies?

 

THE QUEEN HORNET

THE QUEEN WASP

(Vespula maculata, Linn.)

(Vespula maculata, Linnaeus)

The summer was over but the cold weather had scarcely begun when I found this creature under a rotten log in the pasture. The paper nest over the front door was empty and rapidly falling to pieces, but even so, it was hard to believe that the active, dangerous creatures we had watched for so many weeks had suddenly disappeared, and that, of the whole busy colony, only a few females were left.

The summer was over, but the cold weather had barely started when I found this creature under a decaying log in the pasture. The paper nest above the front door was empty and quickly falling apart, but even so, it was hard to believe that the active, dangerous creatures we had observed for so many weeks had suddenly vanished, and that out of the entire busy colony, only a few females remained.

There is something fascinating in the picture of the young queen hornet, after mating is over and all her relatives are dead, crawling away beneath some log and passing there the long cold winter. Then, when spring has come, she emerges from her sleep, the only survivor of her race, and builds, unaided even by her mate, the beginning of a nest just large enough to hold her first-laid eggs. From these hatch out the grubs, which later, after days of feeding, emerge as workers, undeveloped females, and help build up around her a colony of hundreds of busy hornets.

There’s something fascinating about the image of the young queen hornet, after mating is done and all her relatives are gone, crawling beneath a log to spend the long, cold winter. Then, when spring arrives, she wakes up from her slumber, the only survivor of her kind, and starts building a nest just big enough to hold her first batch of eggs. From these eggs hatch grubs, which later, after days of feeding, develop into workers and undeveloped females, helping her create a colony of hundreds of busy hornets.

The death of the wasp and hornet workers does not seem to be a matter of cold alone, for, in the regions of perpetual summer, the workers of many species live short lives. They feel the cold, of course, as all our insects do, and inside the nest, on the shelves formed by the flat tops of the combs where the larvæ live, they find dry roosting places at night. The heat of their own bodies materially raises the temperature inside the nest.

The death of wasps and hornet workers doesn’t seem to be just about the cold, because in areas where it’s always warm, workers of many species have short lifespans. They definitely feel the cold, just like all our insects do, and inside the nest, on the flat tops of the combs where the larvae live, they find dry spots to rest at night. The heat from their bodies significantly increases the temperature inside the nest.

Though many people think them just alike, the bees and wasps (the hornet is a kind of wasp) are very different creatures. The wasps have trim, slender forms with a few scattered hairs upon their bodies, whereas the bees are generally hairy and short bodied. They both build combs, but the wasps make theirs of paper wetted with saliva, while the bees build theirs of wax secreted from their bodies. The wasps depend upon fresh food gathered in the day’s hunt through the air, whereas the bees store up their food in empty cells. The wasps’ nests are the wigwams of a season, the bees’ hives the more permanent abodes of a higher type of social beings.

Though many people think they're just alike, bees and wasps (hornets are a kind of wasp) are actually very different creatures. Wasps have sleek, slender bodies with a few scattered hairs, while bees are usually hairy and have shorter bodies. They both build combs, but wasps make theirs out of paper that's wet with saliva, while bees construct theirs from wax secreted by their bodies. Wasps rely on fresh food they gather during their daily hunts, whereas bees store their food in empty cells. Wasps' nests are like seasonal wigwams, while bees' hives are more permanent homes for a higher type of social creature.

 

THE YELLOW JACKET

THE YELLOW JACKET

(Vespa carolina, Dru.)

Vespa carolina, Dru.

Who has not wished that these brown and yellow striped creatures would build their nests where people could see them and be warned to stay away, instead of underneath the ground as they do now.

Who hasn't wished that these brown and yellow striped creatures would build their nests where people could see them and be warned to stay away, instead of underground like they do now?

They hunt in flocks, and it is no wonder that with the sides of their heads all eyes and with three other eyes on the top of the head they should quickly find anyone who treads on their underground nests.

They hunt in groups, and it's no surprise that with the sides of their heads covered in eyes and three more on top, they can quickly spot anyone who steps on their underground nests.

 

ONE OF THE SOCIAL WASPS

A SOCIAL WASP

(Polistes metrica, Say)

(Polistes metrica, Say)

No insect’s nest is better known than the small, hanging, paper comb of this social wasp. You find it under eaves and suspended from the ceiling of the porch and from the rafters of the barn. Then, as the cold days of autumn come and the workers and males of the colony die off, their hibernating queens seek shelter from the cold in our houses.

No insect nest is more recognizable than the small, hanging, paper-like structure of this social wasp. You can find it under eaves, hanging from the ceiling of the porch, and from the rafters of the barn. As the chilly days of autumn arrive and the workers and males of the colony die off, their hibernating queens seek warmth in our homes.

In the spring these queens start out to build a few small, paper cells with finely chewed up fibers of wood wet with sticky saliva. In these they rear up workers to help add new cells and gather food for a new family, and before the summer season has rolled by, the few small paper cells have grown to several scores.

In the spring, these queens begin building a few small paper cells using finely chewed wood fibers mixed with sticky saliva. In these cells, they raise workers to help create new cells and collect food for a new family. By the time summer rolls around, those few small paper cells have expanded to many dozens.

If you have the hardihood to stand quite close to one of these nests you will see the grubs with hungry-looking mouths, wiggling and stretching out their necks, each in a cell quite open to the air, waiting to be fed by its sister or the queen. As to which will come forth from these white grubs as queens, which as males, and which are doomed to be but workers—undeveloped females—nobody can foretell, but certain it is that there will be all three of these forms represented.

If you have the courage to stand really close to one of these nests, you'll see the grubs with their eager mouths, wiggling and stretching their necks, each in a cell wide open to the air, waiting to be fed by their sister or the queen. As for which of these white grubs will become queens, which will be males, and which are destined to be just workers—underdeveloped females—no one can predict, but it’s certain that all three of these forms will be present.

 

A MUD DAUBER WASP

A mud dauber wasp

(Sceliphron cementarium, Klug)

(Sceliphron cementarium, Klug)

Think of all the marvelous mechanism and chemistry required in order that a wasp may feed its young upon fresh meat!

Think about all the amazing processes and chemistry involved for a wasp to feed its young fresh meat!

The solitary wasps have stings whose venom is much less powerful than that of the bees. Fabre declares that his experiments convince him that the reason may lie in the fact that for paralyzing its prey the wasp needs only a weak poison whereas when the bee stings it does so in self-defense and it stings to kill.

The solitary wasps have stings with venom that's way less potent than that of bees. Fabre states that his experiments lead him to believe that the reason might be that to paralyze its prey, the wasp only requires a mild poison, while the bee stings in self-defense and aims to kill.

The busy mud dauber females build their nests of mud brought from the nearest puddle and in each carefully made cell lay an egg and around it pack the paralyzed insects on which the voracious little grubs begin to feed as soon as they hatch out.

The hardworking female mud daubers create their nests using mud gathered from the closest puddle. In each meticulously crafted cell, they lay an egg and surround it with paralyzed insects, which the hungry little grubs start to eat right after they hatch.

By the time the young grubs have eaten up the food that has been so thoughtfully supplied by their parents and have changed from grub to pupa and emerged as flying, stinging wasps, their parents are dead and gone. Imagine, if you can, a civilization in which the mothers slave for offspring which they never see, and the children grow up with no education, yet possessed of all the knowledge that their parents had. As Sharpe remarks, the solitary wasps are among the most instinctive creatures of the animal kingdom.

By the time the young grubs have eaten all the food that their parents generously provided and transformed from grub to pupa, emerging as flying, stinging wasps, their parents are long gone. Imagine a society where the mothers work tirelessly for offspring they never meet, and the children grow up without any education but inherit all the knowledge their parents had. As Sharpe points out, solitary wasps are some of the most instinctual creatures in the animal kingdom.

 

THE FOOD OF A MUD DAUBER’S BABY

THE FOOD OF A MUD DAUBER’S BABY

This little white spider I found in the nest of a mud dauber wasp.

This small white spider I discovered in the nest of a mud dauber wasp.

How long this white spider would have lived its paralyzed existence I do not know. Fabre has watched insects so paralyzed for six weeks, and this one was on my table for several weeks in June without moving and without showing any sign of decay.

How long this white spider would have lived its paralyzed existence, I don’t know. Fabre observed insects in this state for six weeks, and this one was on my table for several weeks in June without moving and without showing any signs of decay.

We are accustomed to think of the wonders of cold storage as a result of this age of invention, and to look upon its achievement as the accomplishment of the human brain. The mud dauber, in common with most of the so-called solitary wasps, possesses the means of paralyzing the nerve centers of its prey and thus preserving it alive for weeks in the nests of the baby wasps. With the most amazing aim it darts its poison sting between the joints in the armor plate of its victim and touches with a drop of poison one of the nerve ganglia which lies on the abdominal side of most insects.

We tend to think of the marvels of cold storage as a product of this age of invention and see its success as a triumph of human ingenuity. The mud dauber, like many so-called solitary wasps, has the ability to paralyze the nerve centers of its prey, keeping it alive for weeks in the nests of its young. With incredible precision, it strikes its venomous sting between the joints in the armor of its victim and injects a drop of poison into one of the nerve ganglia located on the underside of most insects.

Fabre has shown that the same result can be produced by a needle and a drop of ammonia, and insects paralyzed in this way hang, as it were, between life and death for weeks or months. If too heavy a dose is given the insect dies in a few hours and putrifies in a few days, and if given too light an application it soon recovers. Different insects require different amounts of the poison to paralyze them and the solitary wasps make mistakes just as man would do. According to Fabre these insects have also discovered that in certain species of their prey the nerve ganglia are grouped close together and can be easily reached with the poison while in others the ganglia are separated, and each ganglion must be touched.

Fabre has shown that the same effect can be achieved using a needle and a drop of ammonia. Insects that are paralyzed this way can hang in a state between life and death for weeks or even months. If they receive too large a dose, the insect dies within a few hours and starts to decay in a few days. However, if the dose is too small, it quickly recovers. Different insects need different amounts of the poison to be paralyzed, and solitary wasps can make mistakes just like humans do. According to Fabre, these insects have also figured out that in certain species of their prey, the nerve ganglia are close together and can be easily targeted with the poison, while in others, the ganglia are spaced apart, and each ganglion has to be hit individually.

It is a weird thought that for thousands of centuries these creatures have had a perfectly satisfactory way of preserving and storing fresh food while man still kills his animal food and is now quarreling as to how it should be stored and whether if frozen for months it is really good to eat.

It’s a strange thought that for thousands of years these creatures have had a perfectly good method of preserving and storing fresh food, while humans still hunt for their animal food and are now arguing about how it should be stored and whether freezing it for months makes it safe to eat.

 

THE FIG INSECT ON WHICH DEPENDS A GREAT PLANT INDUSTRY

THE FIG INSECT THAT SUPPORTS A HUGE PLANT INDUSTRY

(Blastophaga grossorum, Grav.)

(Blastophaga grossorum, Grav.)

Into every dried Smyrna fig that you eat a queer little beast like this has crawled; unless she does so, no seeds will form, for the inside of a young fig is filled with flowers waiting to be dusted with pollen and it cannot develop until this is done. This tiny, female wasp, so small you can scarcely see her with the naked eye, is the pollen duster of this miniature flower garden.

Into every dried Smyrna fig that you eat, a strange little creature like this has crawled; without it, no seeds will form. The inside of a young fig is filled with flowers waiting to be pollinated, and it cannot develop until this happens. This tiny female wasp, so small you can hardly see her without magnification, is the pollinator of this miniature flower garden.

The Blastophaga hatches out from a tiny egg which her mother lays in a special flower or gall in the flower cavity of a wild, inedible Caprifig that came originally from the islands off the Syrian coast. Her mate, an ugly little thing with no wings at all, hatches out before she does and mates with her even before she comes out of her tiny cocoon. After wandering about among the stamens in the cavity in the Caprifig until her back and sides are covered with pollen, she finds her way out through the hole in the end of the ripening wild fig and flies away in search of another young and ripening fig in whose gall flowers instinct impels her to lay her eggs.

The Blastophaga hatches from a tiny egg that her mother lays in a special flower or gall within the flower cavity of a wild, inedible Caprifig, which originally came from the islands off the Syrian coast. Her mate, a small, unattractive creature with no wings, hatches before she does and mates with her even before she emerges from her tiny cocoon. After moving around among the stamens in the Caprifig cavity until her back and sides are covered with pollen, she finds her way out through the hole at the end of the ripening wild fig and flies off in search of another young, ripening fig where her instincts drive her to lay her eggs in the gall flowers.

The larger, juicier Smyrna fig attracts her, and she crawls inside, searching for gall flowers there. But the Smyrna fig has no special places for her eggs and, after wandering around over the flowers in the floral cavity she wanders out again, or dies. But in this scramble over the sticky stigmas of the Smyrna fig flowers, she irritates them and leaves upon them the pollen which she brought with her from the wild fig. This is what causes the young seeds of the Smyrna fig to grow and the fig itself to swell and become the honey-sweet fruit which we eat.

The bigger, juicier Smyrna fig lures her in, and she crawls inside, looking for gall flowers. But the Smyrna fig doesn’t have special spots for her eggs, so after wandering around among the flowers in the floral cavity, she either crawls out again or dies. However, while moving around on the sticky stigmas of the Smyrna fig flowers, she irritates them and deposits the pollen she brought from the wild fig. This is what makes the young seeds of the Smyrna fig grow and causes the fig to swell and turn into the sweet fruit that we eat.

Without the visits of this tiny wasp the figs either fall off on the ground when young, or else form insipid tasteless fruits. So it might be said that the great fig industry of Smyrna hangs on the blundering instinct of this little creature.

Without the visits of this tiny wasp, the figs either drop to the ground when they're young or develop into bland, tasteless fruits. So, you could say that the thriving fig industry of Smyrna depends on the clumsy instinct of this little creature.

Some enterprising Californians brought over and planted orchards of the Smyrna fig and could not understand why they did not bear. Then they brought in the wild Caprifig from Smyrna and planted it side by side with the Smyrna figs, but still with no result. Finally the experts of the Department of Agriculture were called in and solved the problem by introducing the insect, which had been left behind.

Some resourceful Californians imported and planted orchards of the Smyrna fig but couldn't figure out why they weren't producing fruit. Then they brought in the wild Caprifig from Smyrna and planted it next to the Smyrna figs, but there was still no success. Eventually, experts from the Department of Agriculture were called in and resolved the issue by introducing the missing insect.

This little creature, in the picture, crawled out in my laboratory from a Caprifig which Doctor Rixford, the fig expert of California, sent me, requesting that I photograph his pets.

This little creature in the picture crawled out in my lab from a caprifig that Dr. Rixford, the fig expert from California, sent me, asking me to photograph his pets.

 

THE COW KILLER OR VELVET ANT—A WINGLESS WASP

THE COW KILLER OR VELVET ANT—A WINGLESS WASP

(Mutilla simillima, Sm.)

(Mutilla simillima, Sm.)

Can you imagine an insect daring enough to brave the stings of the thousands of workers in a bee’s nest? This wingless, solitary female ant lives habitually in their nests and eats the food they have so busily gathered, an unbidden and probably a most unwelcome guest. Powerful jaws, formidable sting, an armor-plated shell to protect her from the stings of the bees and wasps in whose nests she lives, seem to fit her for the strange life she leads.

Can you picture an insect bold enough to face the stings of thousands of workers in a bee’s nest? This wingless, solitary female ant regularly lives in their nests and consumes the food they’ve worked hard to gather, an uninvited and likely very unwelcome guest. With powerful jaws, a fierce sting, and a tough shell to shield her from the stings of the bees and wasps in whose nests she resides, she seems well-equipped for the unusual life she leads.

If you should find her mate he would doubtless be on the wing, for unlike all others of the order, it is the male alone which flies. So different from their mates do some of these male cow killers look that they have often been mistaken for quite different species.

If you happen to find her mate, he would definitely be flying, because unlike all other members of the order, only the male flies. Some of these male cow killers look so different from their mates that they've often been confused for entirely different species.

It is supposed that the female lays her eggs inside a bumble-bee grub and in a few days’ time they hatch and eat the babies up, from the inside outwards. Then they hatch again, so to speak, as full-fledged cow killers and feast upon the honey of their hosts.

It is believed that the female lays her eggs inside a bumblebee grub, and within a few days, they hatch and consume the larvae from the inside out. They then emerge once again, so to speak, as fully formed cow killers and feast on the honey of their hosts.

 

THE WORKER BUMBLE-BEE

The Worker Bumblebee

(Bombus vagans, Sm.)

(Bombus vagans, Sm.)

Everybody has a friendly feeling for the bumble-bee, that clumsy rover of the clover field whose buzzing seems part of the still summer air. She is the real worker of the hive, an undeveloped female, her hind legs laden with a mass of pollen from the flowers she has visited, and her honey sac filled with nectar.

Everybody feels friendly towards the bumblebee, that clumsy wanderer of the clover field whose buzzing feels like a natural part of the calm summer air. She is the true worker of the hive, an undeveloped female, her back legs heavy with pollen collected from the flowers she's visited, and her honey sac filled with nectar.

As every boy who has hunted her nest will know, the bumble-bee lives in burrows under ground.

As any boy who's searched for her nest knows, the bumblebee lives in underground burrows.

The cells that she makes are of wax, secreted from special plates which lie arranged in rows beneath her hairy body. Each cell is like a little jar, standing on end, quite different from the cells in a honey bee’s comb. In some of these the eggs are laid and the baby bees hatch out, while others are filled up with nectar.

The cells she builds are made of wax, produced by special plates that are lined up in rows under her hairy body. Each cell is like a small jar, standing upright, and is quite different from the cells in a honey bee’s comb. In some of these, the eggs are laid and the baby bees hatch, while others are filled with nectar.

While the bee is gathering pollen with her legs, she is also gathering nectar with her tongue and storing it in a special honey stomach from which she later regurgitates it into the honey cells in her nest.

While the bee is collecting pollen with her legs, she is also gathering nectar with her tongue and storing it in a special honey stomach, which she later regurgitates into the honey cells in her nest.

The nectar, when it is gathered, is thin, like the sap of the maple tree, and, like it, must be condensed. Part of the water seems to be taken out in the honey stomach, and part evaporates from the honey cell.

The nectar, when collected, is liquid, similar to the sap of the maple tree, and, like it, needs to be thickened. Some of the water appears to be removed in the honey stomach, and some evaporates from the honey cell.

It will, perhaps, be a satisfaction to those who hate getting up early to know that there is a well-founded rumor that some bumble-bees have a trumpeter who, somewhere between three and four o’clock in the morning, wakes up the sleepy hive.

It might be a relief to those who dislike getting up early to know that there's a credible rumor that some bumblebees have a trumpeter who, around three to four in the morning, wakes up the drowsy hive.

 

THE POLLEN PLATES OF THE BUMBLE-BEE

THE POLLEN PLATES OF THE BUMBLE-BEE

(Bombus americanorum, Fab.)

(Bombus americanorum, Fab.)

If you will watch a bumble-bee closely as she crawls over the stamens of a wild rose, perhaps you can see that, although she covers the whole under part of her body with pollen, yet she scrapes off all she can with her feet and packs it in a yellow mass on the smooth, hairless segments of her large hind legs, the pollen plates as they are called. To make the pollen stick on these smooth plates and hang together during the flight to the nest, it is claimed by Muller that the bee mixes nectar with the pollen grains. The kind of pollen that she gathers is, however, not generally the dusty kind, like the pollen of the pines or grasses, but the sticky kind that comes from insect-fertilized flowers. When the bumble-bee reaches her nest, she scrapes the pollen from the pollen basket and with it feeds the young, for pollen is the solid food of baby bees.

If you watch a bumblebee closely as it moves over the stamens of a wild rose, you might notice that even though it covers the entire underside of its body with pollen, it still scrapes off as much as possible with its feet and packs it into a yellow mass on the smooth, hairless segments of its large hind legs, known as pollen plates. To make the pollen stick to these smooth plates and hold together during the flight back to the nest, it’s said by Muller that the bee mixes nectar with the pollen grains. However, the type of pollen it collects is usually not the dusty kind like that of pines or grasses, but the sticky kind from insect-pollinated flowers. When the bumblebee gets to its nest, it scrapes the pollen from the pollen basket and uses it to feed the young, since pollen is the solid food for baby bees.

There is one strange thing about these smooth pollen plate legs which, from our human, individualistic point of view, is hard to understand. It is only the workers, the undeveloped females, which have them; the legs of the males and of the queens are hairy and are not at all adapted for pollen gathering. Thus, since workers bear no children, we see a race of parents transmitting to certain of their offspring characters which neither they nor any of their ancestors have ever possessed.

There’s something peculiar about these smooth pollen-collecting legs that, from our human and individualistic perspective, is difficult to grasp. It’s only the workers, the undeveloped females, that have them; the legs of the males and queens are hairy and not designed for gathering pollen at all. Therefore, since workers don’t have offspring, we observe a group of parents passing on traits to some of their young that neither they nor any of their ancestors have ever had.

 

THE BUMBLE-BEE AT WORK

THE BUMBLEBEE AT WORK

This photograph shows the great hybridizer at work.

This photo shows the amazing hybridizer in action.

She is on one of the single roses, her hairy body spread over the stamens which, with their yellow anthers, look like a circular bed of tulips. In the middle of the circle, where her right foot rests, is the stigma.

She is on one of the single roses, her hairy body spread over the stamens, which, with their yellow anthers, look like a round bed of tulips. In the center of the circle, where her right foot rests, is the stigma.

If you will sometime take a hand lens and watch a bee at work (and if you don’t get too close she will pay no attention to you), you will notice the clumsy way she crawls about, knocking the pollen off the stamens and getting her body covered with the yellow dust. As you watch, any feeling of there being some mystery about cross fertilization will be dispelled. How this same bumble-bee could crawl across another rose blossom without leaving a trail of yellow pollen on its stigma would be the mystery!

If you take a magnifying glass and observe a bee at work (and if you don't get too close, she won't notice you), you'll see how awkwardly she moves, bumping into the stamens and getting her body covered in yellow pollen. As you watch, any sense of mystery around cross-fertilization will disappear. The real mystery would be how this same bumblebee could crawl across another rose blossom without leaving a trail of yellow pollen on its stigma!

Since the earliest days of the world of plants and insects, the bumble-bee and her ancestors have been at work mixing the pollen on hundreds of different plants and playing, doubtless, a perfectly gigantic role in the creation of the flowering plants which now cover vast areas of the globe.

Since the earliest days of the plant and insect world, the bumblebee and her ancestors have been busy mixing pollen from hundreds of different plants, undoubtedly playing a huge role in the development of the flowering plants that now blanket large parts of the Earth.

It is perhaps an idle speculation, but it would be interesting to know how many plants would become extinct were some disease or parasite to exterminate the bees.

It might be a pointless thought, but it would be fascinating to know how many plants would go extinct if some disease or parasite wiped out the bees.

 

THE TELLTALE MILKWEED POLLEN

THE TELLTALE MILKWEED POLLEN

(Bombus sp.)

(Bombus sp.)

Although this bumble-bee was caught in flight across my meadow, her photograph shows beyond the shadow of a doubt that she had been a recent visitor to the blossom of some milkweed, for, projecting from her right hind leg and plainly visible, are the pollen masses of the milkweed flower. They look like little paddles and hang in pairs, although this you cannot see in the picture.

Although this bumblebee was caught in mid-flight over my meadow, her photo clearly shows that she had just visited a milkweed flower, as you can see the pollen clumps on her right hind leg. They look like small paddles and hang in pairs, although you can't see that in the picture.

We know that flowers depend upon the bees to fertilize them, but somehow I do not think we grasp the completeness of this dependence, nor realize how many flowers there are which, unless they have their own pet insect visitors, would soon become extinct.

We know that flowers rely on bees for pollination, but I don't think we fully understand just how complete this dependence is, or how many flowers would quickly disappear without their specific insect visitors.

The milkweed lures its visitor with little cups of nectar, and beside each cup it sets a trap which is as carefully worked out as the steel traps which the modern trappers use. Across the top of a little slit, wide below and narrow above, lie the small ends of the paddles or pollen masses, firmly joined together. As the bee alights to sup the nectar, her foot slips into this crack, and in trying to extricate it she pulls up the pair of paddles which fasten themselves onto a hair of her leg like a clothespin on a line. In drying, the paddles clap together in such a way that by the time another milkweed flower is visited they can slip with the leg right into the little slit and are broken off and left there as the bee again pulls out her leg. Once inside, these pollen grains throw out a score or more of tiny, rootlike tubes which grow into the lining of the slit and carry to the ovary below the fertilizing germ plasm which makes the seed develop.

The milkweed attracts its visitors with small cups of nectar, and next to each cup, it sets a trap that's as carefully designed as the steel traps modern trappers use. At the top of a small slit, wide at the bottom and narrow at the top, lie the small ends of the pollen masses, tightly joined together. When a bee lands to drink the nectar, her foot slips into this gap, and as she tries to pull it out, she lifts the pair of paddles that grip onto a hair on her leg like a clothespin on a line. As the paddles dry, they snap together in such a way that by the time the bee visits another milkweed flower, they can easily slide right into the little slit and get broken off and left there as the bee pulls her leg out again. Once inside, these pollen grains send out dozens of tiny, rootlike tubes that grow into the lining of the slit and deliver the fertilizing germ plasm to the ovary below, enabling the seed to develop.

The bumble-bee, of course, is strong enough to slip into these traps and pull her legs out as a routine thing, but many small moths and butterflies are not, and these get caught and die upon the blossoms.

The bumblebee can easily get into these traps and pull her legs out without a problem, but many small moths and butterflies can’t, and they end up getting caught and dying on the flowers.

 

THE POOR MALE BUMBLE-BEE

The unfortunate male bumblebee

(Bombus americanorum, Fab.)

(Bombus americanorum, Fab.)

It was late in October before I noticed, flying low here and there across the clover tops, large bumble-bees, which seemed to be more covered with golden hairs than those which I had watched throughout the summer time. At first I thought them queens, but as their number multiplied I felt I must be mistaken, and one of my insect-knowing friends explained that they were only males, and that with the approaching days of winter they were all doomed to death. Already, he pointed out, their wings were battered and frayed from flying against the autumn winds.

It was late October when I noticed large bumblebees flying low over the clover, looking more covered in golden hairs than those I had seen all summer. At first, I thought they were queens, but as I saw more of them, I realized I must be wrong. One of my friends who knows about insects explained that they were just males, and with winter approaching, they were all doomed to die. He pointed out that their wings were already battered and frayed from flying against the autumn winds.

The importance of the males! Could there be a weaker argument against woman’s suffrage than the one which has been brought forward that throughout nature the duty and the right of protection rests with the male? Perhaps the drones do fight among themselves; but, as in most other fighting of the males, it is not to protect the nest or young from perishing, but merely to determine which one of them shall win the queen’s attention. The males are stingless.

The importance of males! Is there an even weaker argument against women's right to vote than the claim that in nature, the responsibility and right to protect lie with the male? Sure, the drones might brawl among themselves; but, like much of the male fighting, it's not to defend the nest or their young from danger, but just to decide who gets the queen's attention. The males are stingless.

In this world of the clover field all the work of the society is done by the queen herself, or by the workers, which are infertile females. Apparently few males are wanted in the colony until late in the season, when, for a brief period, they are tolerated in considerable numbers as the necessary courtiers who accompany the young queens of late summer in their marriage flight. This takes place before the winter comes to kill all but a few fortunate queens, which find safe shelter in some crevice in the rocks or underneath some old, decaying log.

In this world of the clover field, all the work in the society is done by the queen herself or by the workers, who are sterile females. It seems that few males are needed in the colony until late in the season when, for a short time, they are accepted in larger numbers as the essential companions for the young queens of late summer during their mating flight. This happens before winter arrives, which will eliminate all but a few lucky queens that find safe hiding spots in crevices in the rocks or under some old, rotting log.

 

SOLITARY LEAF-CUTTING BEE

Lonely leaf-cutting bee

(Megachile brevis, Say)

(Megachile brevis, Say)

Unlike the social honey and bumble-bees, this bee leads a solitary life.

Unlike social honey and bumblebees, this bee lives a solitary life.

With her strong, saw-like jaws, the female makes her burrow in soft wood and lines it with bits of leaf which she has cut from some plant. When the leaves of plants in the garden have large round holes in them, in nine cases out of ten you may be sure that they have been cut by some solitary bee.

With her powerful, saw-like jaws, the female creates her burrow in soft wood and lines it with pieces of leaves that she has cut from a plant. When the leaves of plants in the garden have big, round holes in them, you can be sure that in nine out of ten cases, they have been cut by some solitary bee.

When the burrow is complete she makes a ball of pollen and nectar, puts it in the bottom of the burrow, lays an egg upon it, and, with a wad of leaves, securely shuts it in; over this she lays down another food ball with its corresponding egg, and so on, until the burrow is full.

When the burrow is done, she makes a ball of pollen and nectar, places it at the bottom of the burrow, lays an egg on top, and securely seals it in with a lump of leaves; then she puts down another food ball with another egg, and continues this process until the burrow is full.

 

THE STINGER OF THE LEAF-CUTTING BEE

THE STINGER OF THE LEAF-CUTTING BEE

(Megachile brevis, Say)

(Megachile brevis, Say)

The sting or “stinger” of a bee is indeed a most wonderful piece of mechanism. At the base, inside the body of the bee, lie bars or levers, operated by muscles, which push the darts out and draw them in. The poison sac lies just behind this mechanism and pours the poison into a set of cup-like valves, from which it escapes into the wound along longitudinal grooves in the sting like grease along the piston of an engine.

The sting or “stinger” of a bee is truly a remarkable piece of engineering. At the base, inside the bee's body, there are bars or levers, controlled by muscles, that push the stinger out and pull it back in. The poison sac is located just behind this mechanism and releases the venom into a set of cup-like valves, from which it flows into the wound along long grooves in the sting, similar to how grease moves along the piston of an engine.

The sting itself is not, then, hollow, like the spider’s poison fang, but is a poisoned stiletto as long as the bee’s foreleg which she can thrust in and out with incredible rapidity, and which, as everyone knows, can inflict a painful wound on creatures millions of times her size.

The sting itself isn't hollow, like a spider's venomous fang, but is a poisoned stiletto as long as the bee's foreleg, which she can quickly thrust in and out. Everyone knows it can deliver a painful sting to creatures millions of times her size.

 

A COMMON RED ANT

A common red ant

(Formica sp.)

(Formica sp.)

Ants are undoubtedly the highest, structurally and mechanically, of all insects, and at the same time the most efficient. Their social organization has been the admiration of human beings from the earliest times, because the interest of the individual is merged so completely into that of the colony; but, as Wheeler remarks, their organization must strike the individualist with horror.

Ants are definitely the most advanced, both structurally and mechanically, of all insects, and they're also the most efficient. Their social organization has impressed humans since ancient times, because the needs of the individual are completely aligned with those of the colony; however, as Wheeler points out, their structure would horrify someone who values individualism.

It is an organization of females, too. The workers are females, the soldiers are females, the nurses are females, and there is one queen mother for them all, who lays all the eggs of the colony. Where are the males, those representatives of society, those voters of our human colonies? They do not exist as such, for the males of ant colonies are but mates for the young queens. Together with them they leave the nest on their marriage day and together make the marriage flight, but as soon as this is over they die, and the colony gets on easily without them.

It’s an organization of females, too. The workers are all female, the soldiers are female, the nurses are female, and there’s one queen mother for them all, who lays all the eggs for the colony. Where are the males, those representatives of society, those voters in our human colonies? They don’t exist in that way, because the males in ant colonies are just mates for the new queens. They leave the nest with the queens on their wedding day and take part in the mating flight, but as soon as that’s over, they die, and the colony functions just fine without them.

To man, who is the most rapidly evolving organism on the earth today, it is a strange thought that the most highly developed insect which the world has produced, and which has not changed materially since the Tertiary epoch, has relegated the males to the short-lived function of reproduction, leaving him no work to perform and getting rid of him as quickly as possible. Why did the ants, with their marvelous instincts, fail to conquer the world? Why have they stood still for thousands of years after they had perfected their social organization? Did they go as far as evolution could go when it leaves the male out of account? It is perhaps a comfort to think that, after all, they have failed and the man-guided organization of human beings has surpassed them in its development!

To humans, who are the fastest-evolving species on Earth today, it’s a strange idea that the most advanced insect ever, which hasn’t changed much since the Tertiary period, has pushed males into a temporary role of reproduction, leaving them with no real purpose and getting rid of them as quickly as possible. Why didn’t ants, with their incredible instincts, take over the world? Why have they remained stagnant for thousands of years after perfecting their social structure? Did they reach the limit of evolution by excluding males? It might be comforting to think that, in the end, they haven’t succeeded and that the human-led organization of people has outpaced them in development!

 

A BLACK ANT

A black ant

It is strange to think that just because the sunlight which poured upon this little creature’s shiny body was reflected back against a photographic plate, its rays being made to diverge widely in so doing, we can get an image of this tiny ant as large as though it were a mouse.

It's odd to consider that simply because the sunlight hitting this little creature's shiny body was reflected onto a photographic plate, causing the rays to spread out so much, we can capture an image of this tiny ant that appears as big as if it were a mouse.

What a world this would be to us had we microscopic vision! A thousand times as many beasts to look at, a thousand times as many things to see and understand!

What a world this would be for us if we had microscopic vision! A thousand times more animals to observe, a thousand times more things to see and comprehend!

 

ANT GATHERING NECTAR FROM LEAF NECTARIES OF THE CHINESE WOOD-OIL TREE

ANT GATHERING NECTAR FROM LEAF NECTARIES OF THE CHINESE WOOD-OIL TREE

A year ago I planted in my garden in Maryland three young wood-oil trees from the Yangtse valley of China, broad-leaved trees something like the catalpa. Just where the leaf stem joined the leaf blade there were two curious, dark red, oval glands. The use of these I did not understand until one morning I discovered a big black ant on each leaf, and each ant was stationed at the base of its leaf near these glands and evidently was lapping up from them small drops of nectar which kept oozing out from the center of each gland.

A year ago, I planted three young wood-oil trees in my garden in Maryland, which came from the Yangtse Valley in China. They have broad leaves and look a bit like catalpa trees. At the point where the leaf stem meets the leaf blade, there were two strange, dark red, oval glands. I didn’t understand their purpose until one morning when I saw a large black ant on each leaf, with each ant positioned at the base of its leaf near these glands, clearly sipping small drops of nectar that kept oozing out from the center of each gland.

These rapidly-walking little creatures, which spend their time roaming everywhere, had discovered the use of these nectar glands although they were on the leaves of a plant which they had never seen before.

These quickly-moving little creatures, which roam around everywhere, had figured out how to use these nectar glands even though they were on the leaves of a plant they had never encountered before.

Whenever I touched a leaf the ant upon it ran about as if to frighten an intruder away, and I could not help but wonder if in China, where the wood-oil tree is at home, there might not be some stinging ant which takes upon itself to protect the foliage from the attacks of caterpillars, and gets, in payment for its labor, the nectar from these glands. The tropics are full of such agreements between the plants and the ants, and very effective ones they are, too.

Whenever I touched a leaf, the ant on it scurried around as if trying to scare me off, and I couldn’t help but wonder if in China, where the wood-oil tree naturally grows, there might be some stinging ant that takes it upon itself to defend the leaves from caterpillar attacks and, in return for its work, receives nectar from these glands. The tropics are full of such partnerships between plants and ants, and they are very effective, too.

The photograph shows a black ant with antennæ extended, reaching over one of these big glands for the drop of nectar which glistens just below its head. On the other gland, just back of the ant’s left antenna, a second drop of nectar can be seen.

The photograph shows a black ant with its antennas out, reaching over one of these large glands for the drop of nectar that glimmers just below its head. On the other gland, just behind the ant’s left antenna, a second drop of nectar is visible.

First one and then the other of these nectaries is licked clean by the ant, and so well was the work done that throughout the summer it was only when I visited the leaves in early morning, before the ants were out, that I could find the beads of nectar in their places in slight depressions in the glands.

First one and then the other of these nectaries is licked clean by the ant, and so well was the work done that throughout the summer it was only when I visited the leaves in early morning, before the ants were out, that I could find the beads of nectar in their places in slight depressions in the glands.

 

THE ICHNEUMON FLY: ENEMY OF THE SPIDER

THE ICHNEUMON FLY: ENEMY OF THE SPIDER

(Crypturopsis sp.)

(Crypturopsis sp.)

It would seem as though the spider ought to be able to protect itself from such a beautiful creature as this, but she is said to be one of the spider’s worst enemies. With the long ovipositors which may be seen in the photograph and might almost be mistaken for her sting, she lays her eggs inside those of the spider and the larvæ hatching from them eat up the spider’s eggs. It is, so to say, an insect cuckoo, or worse than that, for the bird cuckoo only crowds the real children out of the nest, whereas the ichneumon fly devours them.

It seems like the spider should be able to defend itself against such a beautiful creature, but this one is considered one of the spider's worst enemies. With the long ovipositors seen in the photo that could almost be mistaken for a sting, she lays her eggs inside those of the spider, and the larvae that hatch from them consume the spider’s eggs. It's like an insect version of a cuckoo, but worse, because while the bird cuckoo only pushes the real chicks out of the nest, the ichneumon fly actually eats them.

From man’s point of view, however, many of the tribe to which this so-called fly belongs are his good friends, for they hold in check some of the pests which molest the plants he lives upon.

From a human perspective, though, many of the tribe to which this so-called fly belongs are his good friends, as they help keep in check some of the pests that disturb the plants he relies on.

 

 


Chapter 3
THE WORLD OF MYRIAPODS AND
A SINGLE LAND CRUSTACEAN

THE WORLD OF MYRIAPODS AND A LAND CRUSTACEAN

THE WORLD OF MYRIAPODS AND A LAND CRUSTACEAN

Every one who has turned over a rotten log has seen these thousand-legged worms, and yet I wonder if many of us have known that these weird wandering things resemble, and are the direct living descendants of some of the first animals which crept up out of the sea to live upon the land.

Everyone who has flipped over a decaying log has come across these thousand-legged worms, and yet I wonder how many of us realize that these strange, wandering creatures resemble and are directly descended from some of the earliest animals that crawled out of the sea to live on land.

Long ages before the warm-blooded, lung-breathing beasts came into existence, they worked their way up out of their water life among the corals, sponges, worms, shellfish, and fishes, onto the dry land.

Long before warm-blooded, lung-breathing animals existed, they gradually emerged from their aquatic life among corals, sponges, worms, shellfish, and fish onto dry land.

This was in the great transition time when all sorts of amphibian monsters came into existence, monsters which have long since passed away. These myriapods deserve respect if for no other reason than because their forefathers crept across the fresh footprints and mud wallows of the prehistoric monsters.

This was during the great transition period when all kinds of amphibian monsters came into being, monsters that have long since vanished. These myriapods deserve respect, if for no other reason than that their ancestors crawled across the fresh footprints and mud holes of the prehistoric beasts.

How comes it that these forms of life have changed so little in a million years?

How is it that these life forms have changed so little in a million years?

 

A MILLIPEDE, ONE OF THE VEGETARIAN MYRIAPODS

A millipede, one of the plant-eating myriapods.

Slow moving ringed creature with four legs to each ring or segment of its body! Watch its legs move in ripples as it finds its way over the ground! Unlike its distant relative, the centipede, which has but two legs to each body ring and darts about with most surprising rapidity, this millipede lives mainly on plant food and seldom eats, as does its savage relative, the bodies of small animals which make their home beneath old rotten logs.

Slow-moving, ringed creature with four legs for each ring or segment of its body! Watch its legs move in ripples as it makes its way across the ground! Unlike its distant relative, the centipede, which has only two legs for each body ring and darts around with surprising speed, this millipede primarily eats plant matter and rarely feeds on the bodies of small animals that live under old, rotting logs, like its more aggressive relative.

 

A CENTIPEDE, ONE OF THE CARNIVEROUS MYRIAPODS

A CENTIPEDE, ONE OF THE CARNIVOROUS MYRIAPODS

(Scolopendra sp.)

(Scolopendra sp.)

Perhaps no photograph in the collection serves better to illustrate the vastness of the back yard jungle than this one, for myriapods are the only representatives of a gigantic branch of the animal kingdom, the individuals of which are no more insects than they are lobsters. They live their lives altogether on or in the ground, they do not mind the cold as insects do. Some of them have poison fangs and are reputed to inflict fatal wounds. Their matrimonial habits are strange beyond belief.

Perhaps no photograph in the collection better illustrates the vastness of the backyard jungle than this one, as myriapods are the sole representatives of a huge branch of the animal kingdom, and they are neither insects nor lobsters. They spend their lives entirely on or in the ground and don't mind the cold like insects do. Some have venomous fangs and are known to deliver fatal bites. Their mating habits are incredibly bizarre.

They compose a vast neglected assemblage of creatures which some of their admirers believe have a value which we do not yet understand nor appreciate; just as we did not appreciate the role of the mosquito or the earth worm until the researches of modern science taught us of their importance.

They make up a large, overlooked group of creatures that some of their fans believe have a value we don’t fully understand or appreciate yet; just like we didn’t recognize the importance of mosquitoes or earthworms until modern science revealed their significance.

A great untouched field for exploration lies here among the Myriapods.

A vast, unexplored area for discovery exists here among the Myriapods.

 

TWO PILL BUGS

Two pill bugs

(Armadillidium vulgare, Fab.)

(Armadillidium vulgare, Fab.)

Down from the time of the prehistoric monsters comes the armadillidium, the last survivor of the great land crustaceans. As the serpents and the lizards are all that remain to remind us of the monsters which swarmed and fought in the tertiary swamps and oceans, so this strange creature, no larger than a pea, which rolls itself into a ball when you startle it as you turn over a stone in the meadow, is the survivor of the land crustacea which at one time, in countless forms, abounded everywhere in the then young world.

Down from the time of prehistoric monsters comes the armadillidium, the last survivor of the great land crustaceans. Just as serpents and lizards remind us of the monsters that once swarmed and battled in the ancient swamps and oceans, this strange creature, no bigger than a pea, rolls into a ball when startled as you turn over a stone in the meadow. It is the last of the land crustaceans that, in countless forms, once thrived everywhere in the young world.

It is not an insect, but a last survivor, related to the crabs more closely than to any other branch of the animal kingdom.

It’s not an insect, but the last survivor, more closely related to crabs than to any other group in the animal kingdom.

 

 


INDEX

INDEX

Ant Lion, Winged, 207.

Ants—Black, 247.
Common Red, 245.
Gathering Nectar, 249.

Aphis Lion, 205.


Bee-flies 157, 159.

Bee, Solitary Leaf-cutting, 241.
Stinger of the Leaf-cutting, 243.
See Bumble-bee.

Beetle, 111.
Blister, 127.
Chafer. Spotted Vine, 125.
Cucumber, Twelve-spotted, 135.
Hippopotamus among the Insects, 129.
June, 113.
“June Bug,” 117.
June, Larva of, 105.
Longicorn, 151.
May, 117.
Predaceous Ground, 121.
Sawyer, 137.
Scarab, An American, 133.
Twig-pruner, 119.
Weevil, Clover Leaf, 123.

Bugs, The Order of, 87.
Always Walking Around, 105.
Ambush, 103.
Assassin, 97.
Assassination, 99.
Cicada, 101.
Lantern Fly. 109.
Monster, Queer, Unworldly, 93.
Pill, 261.
Squash, 89.
Strange Shaped, 91.
Tarnished Plant, 107.
Thread Legged, 95.

Bumble-bee, at Work, 235.
Male, the Poor, 239.
Pollen Plates, 233.
Pollen, Telltale Milkweed, 237.
Worker, 231.

Butterfly,—Baby of the Skipper, 177.
Forepart of a Brown, 173.
Swallow-tail of the Spice-bush, Larva of, 171.
Mummy Case, 179.
Yellow, 175.


Caterpillar—Devoured by a Fungus, 189.
Unknown, 187.

Centipede, 259.

Cicada, 101.

Cockroach, 83.

Cowkiller, 229.

Crickets—Camel or Stone, 79.
Ground, 77.
On the Hearth, 75.
Mole, 81.
Stone or Camel, 79.

Crustacean, 261.


Daddy-long-legs, 49.

Dragon-fly, 193.
Case, an Abandoned, 201.
And Its Victim, 195.
Nymph Masked, 197.
Nymph Unmasked, 199.


Fig Insect, see Wasp.

Fly, Bee, 157, 159.
Crane, 141.
Damsel, 203.
Horsefly, 165.
Horsefly, Green Headed, 167.
Ichneumon, 251.
Lace-winged, 205.
Not a House Fly, 168.
Robber, 143, 145, 147, 149, 151.
Scorpion, 209.
Syrphid, Large, 161.


Grasshopper—Baby, 57.
Ear Under its Wing, 63.
Good to Eat, 61.
Hearing Organ, 65.
King, 55.
Skeleton, 59.


Harvestman, 49.

Hornet—Bald-faced, 215.
Queen, 217.
Yellow Jacket, 219.
[Pg 264]

Insects, Feathered, 169.

Insects, Nerve Winged, 191.

Insects, Stinging, 213.

Insects, Straight-winged, 53.

Insects, Two-winged, 139.


Katydid, 69.
Narrow-winged, 71.
Young, 73.


Locust, Short-winged Green, 67.


Mantis, Praying, 85.

Mosquito, Anopheles, 155.
Culex, 153.

Millipede, 257.

Moth, 181.
Not Good to Eat, 183.
Spectacle, Hairy, 185.

Myriapods, 255.


Spider World, 16.

Spider—Bird-dropping, 31.
Crab, 45.
Daddy-long-legs or Harvestman, 49.
From a Fly’s Point of View, 37.
Grass, The Male, 43.
Harvestman, or Daddy-long-legs, 49.
Jumping, 19, 21, 23.
Male, a Mature, 47.
Mother Spider and Nest, 39.
Orb-weaver with Eggs, 35.
Orb-weaving, 33.
Spiny-bellied, 29.
Vagabond, 41.
Wolf-spider, 25.
Wolf-spider, Skeleton of, 27.


Termite, Soldier, 211.


Wasp—Cow Killer, 229.
Fig Insect, 227.
Food of a Mud Dauber’s Baby, 225.
Mud Dauber, 223.
Social, 221.
Velvet Ant or Cow Killer, 229.
Wingless, 229.


Yellow Jacket, 219.

Ant Lion, Winged, 207.

Ants—Black, 247.
Common Red, __A_TAG_PLACEHOLDER_0__.
Collecting Nectar, __A_TAG_PLACEHOLDER_0__.

Aphis Lion, 205.


Bee-flies 157, 159.

Bee, Solitary Leaf-cutting, 241.
Leaf-cutter Ant Stinger, __A_TAG_PLACEHOLDER_0__.
See __A_TAG_PLACEHOLDER_0__.

Beetle, 111.
Blister, __A_TAG_PLACEHOLDER_0__.
Chafer. Spotted Vine, __A_TAG_PLACEHOLDER_0__.
Cucumber, Twelve-spotted, __A_TAG_PLACEHOLDER_0__.
Hippopotamus among the bugs, __A_TAG_PLACEHOLDER_0__.
June, __A_TAG_PLACEHOLDER_0__.
"June Bug," __A_TAG_PLACEHOLDER_0__.
June, Larva of, __A_TAG_PLACEHOLDER_0__.
Longhorn, __A_TAG_PLACEHOLDER_0__.
May, __A_TAG_PLACEHOLDER_0__.
Predatory Ground, __A_TAG_PLACEHOLDER_0__.
Sawyer, __A_TAG_PLACEHOLDER_0__.
Scarab, An American, __A_TAG_PLACEHOLDER_0__.
Twig pruner, __A_TAG_PLACEHOLDER_0__.
Weevil, Clover Leaf, __A_TAG_PLACEHOLDER_0__.

Bugs, The Order of, 87.
Always wandering, __A_TAG_PLACEHOLDER_0__.
Ambush, __A_TAG_PLACEHOLDER_0__.
Assassin, __A_TAG_PLACEHOLDER_0__.
Assassination, __A_TAG_PLACEHOLDER_0__.
Cicada, __A_TAG_PLACEHOLDER_0__.
Spotted Lanternfly. __A_TAG_PLACEHOLDER_0__.
Monster, Queer, Otherworldly, __A_TAG_PLACEHOLDER_0__.
Pill, __A_TAG_PLACEHOLDER_0__.
Squash, __A_TAG_PLACEHOLDER_0__.
Oddly Shaped, __A_TAG_PLACEHOLDER_0__.
Tarnished Plant, __A_TAG_PLACEHOLDER_0__.
Thread Legged, __A_TAG_PLACEHOLDER_0__.

Bumble-bee, at Work, 235.
Male, the Poor, __A_TAG_PLACEHOLDER_0__.
Pollen Plates, __A_TAG_PLACEHOLDER_0__.
Pollen, Milkweed, __A_TAG_PLACEHOLDER_0__.
Worker, __A_TAG_PLACEHOLDER_0__.

Butterfly,—Baby of the Skipper, 177.
Front of a Brown, __A_TAG_PLACEHOLDER_0__.
Swallowtail of the Spicebush, Larva of, __A_TAG_PLACEHOLDER_0__.
Mummy Case, __A_TAG_PLACEHOLDER_0__.
Yellow, __A_TAG_PLACEHOLDER_0__.


Caterpillar—Devoured by a Fungus, 189.
Unknown, __A_TAG_PLACEHOLDER_0__.

Centipede, 259.

Cicada, 101.

Cockroach, 83.

Cowkiller, 229.

Crickets—Camel or Stone, 79.
Ground, __A_TAG_PLACEHOLDER_0__.
On the Fireplace, __A_TAG_PLACEHOLDER_0__.
Mole, __A_TAG_PLACEHOLDER_0__.
Stone or Camel, __A_TAG_PLACEHOLDER_0__.

Crustacean, 261.


Daddy-long-legs, 49.

Dragon-fly, 193.
Case, an abandoned __A_TAG_PLACEHOLDER_0__.
And Its Victim, __A_TAG_PLACEHOLDER_0__.
Nymph Masked, __A_TAG_PLACEHOLDER_0__.
Nymph Unmasked, __A_TAG_PLACEHOLDER_0__.


Fig Insect, see Wasp.

Fly, Bee, 157, 159.
Crane, __A_TAG_PLACEHOLDER_0__.
Girl, __A_TAG_PLACEHOLDER_0__.
Horsefly, __A_TAG_PLACEHOLDER_0__.
Green-Headed Horsefly, __A_TAG_PLACEHOLDER_0__.
Ichneumon, __A_TAG_PLACEHOLDER_0__.
Lacewinged, __A_TAG_PLACEHOLDER_0__.
Not a House Fly, __A_TAG_PLACEHOLDER_0__.
Robber, __A_TAG_PLACEHOLDER_0__, __A_TAG_PLACEHOLDER_1__, __A_TAG_PLACEHOLDER_2__, __A_TAG_PLACEHOLDER_3__, __A_TAG_PLACEHOLDER_4__.
Scorpion, __A_TAG_PLACEHOLDER_0__.
Large Syrphid, __A_TAG_PLACEHOLDER_0__.


Grasshopper—Baby, 57.
Ear Under its Wing, __A_TAG_PLACEHOLDER_0__.
Good to Eat, __A_TAG_PLACEHOLDER_0__.
Hearing Aid, __A_TAG_PLACEHOLDER_0__.
King, __A_TAG_PLACEHOLDER_0__.
Skeleton, __A_TAG_PLACEHOLDER_0__.


Harvestman, 49.

Hornet—Bald-faced, 215.
Queen, __A_TAG_PLACEHOLDER_0__.
Yellow Jacket, __A_TAG_PLACEHOLDER_0__.
[Pg 264]

Insects, Feathered, 169.

Insects, Nerve Winged, 191.

Insects, Stinging, 213.

Insects, Straight-winged, 53.

Insects, Two-winged, 139.


Katydid, 69.
Narrow-winged, __A_TAG_PLACEHOLDER_0__.
Young, __A_TAG_PLACEHOLDER_0__.


Locust, Short-winged Green, 67.


Mantis, Praying, 85.

Mosquito, Anopheles, 155.
Culex, __A_TAG_PLACEHOLDER_0__.

Millipede, 257.

Moth, 181.
Not Safe to Eat, __A_TAG_PLACEHOLDER_0__.
Show, Hairy, __A_TAG_PLACEHOLDER_0__.

Myriapods, 255.


Spider World, 16.

Spider—Bird-dropping, 31.
Crab, __A_TAG_PLACEHOLDER_0__.
Daddy longlegs or Harvestman, __A_TAG_PLACEHOLDER_0__.
From a Fly’s Perspective, __A_TAG_PLACEHOLDER_0__.
Grass, The Guy, __A_TAG_PLACEHOLDER_0__.
Harvestman, or Daddy Longlegs, __A_TAG_PLACEHOLDER_0__.
Jumping, __A_TAG_PLACEHOLDER_0__, __A_TAG_PLACEHOLDER_1__, __A_TAG_PLACEHOLDER_2__.
Male, a Mature, __A_TAG_PLACEHOLDER_0__.
Mother Spider and Nest, __A_TAG_PLACEHOLDER_0__.
Egg-laying Orb-weaver, __A_TAG_PLACEHOLDER_0__.
Orb-weaving, __A_TAG_PLACEHOLDER_0__.
Spiny-bellied, __A_TAG_PLACEHOLDER_0__.
Vagabond, __A_TAG_PLACEHOLDER_0__.
Wolf spider, __A_TAG_PLACEHOLDER_0__.
Wolf spider skeleton, __A_TAG_PLACEHOLDER_0__.


Termite, Soldier, 211.


Wasp—Cow Killer, 229.
Fig Bug, __A_TAG_PLACEHOLDER_0__.
Food for a Mud Dauber’s Baby, __A_TAG_PLACEHOLDER_0__.
Mud Dauber, __A_TAG_PLACEHOLDER_0__.
Social, __A_TAG_PLACEHOLDER_0__.
Velvet Ant or Cow Killer, __A_TAG_PLACEHOLDER_0__.
Wingless, __A_TAG_PLACEHOLDER_0__.


Yellow Jacket, 219.

 

 


INDEX TO LATIN NAMES

INDEX OF LATIN NAMES

Acrosoma gracile, Walck., 29.

Agelina nævia, Walck., 43.

Agrion maculatum, Beauvois, 203.

Agrynnis cybele, Fab., 173.

Allorhina nitida, Linn., 113, 115.

Anasa tristis, De G., 89.

Anopheles punctipennis, Say, 155.

Apantesis nais attacked by Empusa, sp., Dru., 189.

Archytas aterrima, Des., 163.

Armadillidium vulgare, Fab., 261.


Blastophaga grossorum, Grav., 227.

Blatella germanica, Linn., 83.

Bombus americanorum, Fab., 233, 239.
sp., 237.
vagans, Sm., 231.

Brochymena arborea, Say, 105.


Ceuthophilus uhleri, Scudd., 79.

Chlænius æstivus, Say, 121.

Chrysopa sp., 205.

Cicada sayi, Grossb., 101.

Coleoptera, 111.

Colias philodice, Gdt., 175.

Copris carolina, Linn., 133.

Corynocoris distinctus, Dallas, 93.

Crypturopsis sp., 251.

Culex sp., 153.


Dasyllis grossa, Fab., 145, 147.

Deromyia, 151.

Diabrotica duodecim punctata, Oliv., 135.

Dicromorpha viridis, Scudd., 67.

Diptera, 139.

Dissosteira carolina, Linn., 63, 65.

Dolomedes tenebrosus, Hentz, 37.


Elaphidion atomaricum, Dru., 119.

Emesa longipes, De G., 95.

Epeira domiciliorum, Hentz, 35.
trivittata, Keys., 33.
verrucosa, Hentz, 31.

Epicanta marginata, Fab., 127.

Erax æstuans, Linn., 143.

Euchætes egle, Dru., 185.

Eudamus tityrus, Fab., 177.

Euschistus tristigmus, Say, 91.


Formica sp., 245.


Gryllotalpa borealis, Burm., 81.

Gryllus pennsylvanicus, Burm., 75.


Helicoptera variegata, Van D., 109.

Hemiptera, 87.

Hippiscus sp., 55.

Hymenoptera, 213.


Lachnosterna quercus, Knoch, 117.

Leiobunum grande, Weed, 49.

Lepidoptera, 169.

Libellulid, 197, 199, 201.

Limnobia sp., 141.

Lycosa carolinensis, Walck, 25.
punctulata, Hentz, 27.

Lygus pratensis, Linn., 107.


Macromia sp., 195.

Mallophora sp., 149.

Megachile brevis, Say, 241, 243.

Melesia virginiensis, Dru., 161.

Monohammus titilator, Fab., 137.

Mutilla simillima, Sm., 229.

Myriapods, 255.

Myrmeleon immaculatus, De G., 207.


Neuroptera, 191.


Orthoptera, 53.

Orthosoma brunneum, Forst., 131.


Panorpa confusa, Westw., 209.

Papilio troilus, Linn., 171.

Paratenodera sinensis, Sauss., 85.

Pardosa milvina, Hentz, 41.

Pelidnota punctata, Linn., 125.

Phidippus audax, Hentz, 19.
togatus, Koch, 23.

Phymata pennsylvanica, Handl., 103.

Phytonomus punctatus, Fab., 123.

Polistes metrica, Say, 221.

Prionus, sp., 129.

Pselliopus cinctus, Fab., 97, 99.


Sceliphron cementarium, Klug, 223.

Scolopendra sp., 259.
[Pg 266]
Scudderia sp., 69, 71, 73.

Sparnopolius fulvus, Wied., 157.

Spogostylum simson, Fab., 159.


Tabanus atratus, Forst., 165.
punctifer, O. S., 167.

Termes flavipes, Koll., 211.


Vespula maculata, Linn., 215, 217.

Vespa carolina, Dru., 219.


Xysticus gulosus, Keys., 45.

Acrosoma gracile, Walck., 29.

Agelina nævia, Walck., 43.

Agrion maculatum, Beauvois, 203.

Agrynnis cybele, Fab., 173.

Allorhina nitida, Linn., 113, 115.

Anasa tristis, De G., 89.

Anopheles punctipennis, Say, 155.

Apantesis nais attacked by Empusa, sp., Dru., 189.

Archytas aterrima, Des., 163.

Armadillidium vulgare, Fab., 261.


Blastophaga grossorum, Grav., 227.

Blatella germanica, Linn., 83.

Bombus americanorum, Fab., 233, 239.
sp., __A_TAG_PLACEHOLDER_0__.
vagans, Sm., __A_TAG_PLACEHOLDER_0__.

Brochymena arborea, Say, 105.


Ceuthophilus uhleri, Scudd., 79.

Chlænius æstivus, Say, 121.

Chrysopa sp., 205.

Cicada sayi, Grossb., 101.

Coleoptera, 111.

Colias philodice, Gdt., 175.

Copris carolina, Linn., 133.

Corynocoris distinctus, Dallas, 93.

Crypturopsis sp., 251.

Culex sp., 153.


Dasyllis grossa, Fab., 145, 147.

Deromyia, 151.

Diabrotica duodecim punctata, Oliv., 135.

Dicromorpha viridis, Scudd., 67.

Diptera, 139.

Dissosteira carolina, Linn., 63, 65.

Dolomedes tenebrosus, Hentz, 37.


Elaphidion atomaricum, Dru., 119.

Emesa longipes, De G., 95.

Epeira domiciliorum, Hentz, 35.
trivittata, Keys., __A_TAG_PLACEHOLDER_0__.
verrucosa, Hentz, __A_TAG_PLACEHOLDER_0__.

Epicanta marginata, Fab., 127.

Erax æstuans, Linn., 143.

Euchætes egle, Dru., 185.

Eudamus tityrus, Fab., 177.

Euschistus tristigmus, Say, 91.


Formica sp., 245.


Gryllotalpa borealis, Burm., 81.

Gryllus pennsylvanicus, Burm., 75.


Helicoptera variegata, Van D., 109.

Hemiptera, 87.

Hippiscus sp., 55.

Hymenoptera, 213.


Lachnosterna quercus, Knoch, 117.

Leiobunum grande, Weed, 49.

Lepidoptera, 169.

Libellulid, 197, 199, 201.

Limnobia sp., 141.

Lycosa carolinensis, Walck, 25.
punctulata, Hentz, __A_TAG_PLACEHOLDER_0__.

Lygus pratensis, Linn., 107.


Macromia sp., 195.

Mallophora sp., 149.

Megachile brevis, Say, 241, 243.

Melesia virginiensis, Dru., 161.

Monohammus titilator, Fab., 137.

Mutilla simillima, Sm., 229.

Myriapods, 255.

Myrmeleon immaculatus, De G., 207.


Neuroptera, 191.


Orthoptera, 53.

Orthosoma brunneum, Forst., 131.


Panorpa confusa, Westw., 209.

Papilio troilus, Linn., 171.

Paratenodera sinensis, Sauss., 85.

Pardosa milvina, Hentz, 41.

Pelidnota punctata, Linn., 125.

Phidippus audax, Hentz, 19.
togatus, Koch, __A_TAG_PLACEHOLDER_0__.

Phymata pennsylvanica, Handl., 103.

Phytonomus punctatus, Fab., 123.

Polistes metrica, Say, 221.

Prionus, sp., 129.

Pselliopus cinctus, Fab., 97, 99.


Sceliphron cementarium, Klug, 223.

Scolopendra sp., 259.
[Pg 266]
Scudderia sp., 69, 71, 73.

Sparnopolius fulvus, Wied., 157.

Spogostylum simson, Fab., 159.


Tabanus atratus, Forst., 165.
punctifer, O. S., __A_TAG_PLACEHOLDER_0__.

Termes flavipes, Koll., 211.


Vespula maculata, Linn., 215, 217.

Vespa carolina, Dru., 219.


Xysticus gulosus, Keys., 45.

 

 



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