The Autobiography of an Electron Wherein the Scientific Ideas of the Present Time Are Explained in an Interesting and Novel Fashion — Text and Context
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n to make glass plate machines for producing electrification on a larger scale.
The electric spark is produced.
The electron tells the story of the first attempt to store electricity in a glass jar.
This is what we do now by means of a Leyden jar.
A sudden expulsion of electrons from one object to another is called a discharge of electricity.
Lightning is a discharge of electrons from a cloud to the earth or from cloud to cloud.
In repeating Franklin's experiment of drawing electricity from thunder-clouds, a Russian professor received a fatal shock.
Now I must tell you of a surprise in which I took an active part. Some man thought he would separate a great crowd of us from our friends. Of course, he did not think really of _us_, but whatever he may have supposed he was doing, he succeeded in accumulating greater crowds of us together than he had done previously. He managed this by making simple machines to do the rubbing for him on a larger scale. The result was really too much for us; we were kept crowding on to a sort of brass comb arrangement from which we could not escape, as the metal was attached to a glass support. Talk about overcrowding! I had never experienced the like before, and I felt sure some catastrophe would happen. Suddenly there was a stampede, during which a great crowd of electrons forced their way across to a neighbouring object and thence to the earth. I can assure you it was no joke getting through the air. We all tried to leap together, but some of the crowd were forced back upon us; then bang forward we went again, back once more, and so on till we settled down to our normal condition. Of course all this surging to and fro occupied far less time than it takes to tell. Indeed, I could not tell you what a very small fraction of a second it took.
I wish you had seen the experimenter's surprise as we made this jump. We caused such a bombardment in the air that there was a bright spark accompanied by a regular explosion. Some men ran away with the idea that electricity was a mysterious fire, which only showed itself when it mixed with the atmosphere. Nothing delighted us more, after our own surprise was over, than to have a chance of repeating these explosions, to the alarm of the experimenters. But the best sport of all was to come, and when I heard of it I was so disappointed that I had not been one of the sporting party. It came about in the following way.
One learned man thought he had hit upon a good idea. He tried to crowd a tremendous number of us into some water contained in a glass jar. Without condescending to think of us, he crowded an enormous number of electrons from one of his rubbing machines along a piece of chain which led them into water. The overcrowding was appalling, for it was impossible to escape through the glass vessel. Things had reached a terrible state, when the experimenter stopped the machine and put forward his hand to lift the chain out of the water. Now was the chance of escape, so the whole excited crowd made one wild rush to earth by way of the experimenter's body. The rapid surging to and fro of the crowd racked the man's muscles. I wish I had been there to see him jump; they say it was something grand. You can imagine how the little sinners enjoyed the joke; they knew they were safe, as man had no idea of their existence at that time.
Another man was foolhardy enough to try a similar experiment, and they say that his alarm was even greater; indeed, he swore he would not take another shock even for the crown of France. We were all eager to get opportunities of alarming man, not that we wished him any harm, but we thought he might pay us a little more attention.
I remember one occasion upon which some of us were boasting of what we had done in the way of alarming men, whereupon one fellow-electron rather belittled our doings. He maintained that he had jumped all the way from a cloud to the earth, along with a crowd of other electrons. In doing so they had scared the inhabitants of a whole village, for they alighted upon the steeple of a church, and in their wild rush they played such havoc among the atoms composing the steeple that they did considerable outward damage to the great structure.
I may as well confess that we are not free agents in performing these gigantic jumps; we are compelled to go with the crowd when things are in such a state of stress. We simply cannot hold on to the atoms of matter upon which we happen to be located. It is only under very considerable pressure that we can perform this class of jump, and I beg to assure you that we are perfectly helpless in those cases where we have been dashed upon some poor creature with a message of death.
Alas! on one occasion I was one of a party who killed a very learned man. It was most distasteful to us; we could not possibly prevent it. He had erected a long rod which extended up into the air, and terminated at the lower end in his laboratory. Some of us who were in the upper atmosphere were forced on to this iron rod, and from past experience we quite expected that we should be subjected to a sudden expulsion to earth. Indeed we were waiting for the experimenter to provide us with a means of escape, when suddenly he brought his head too near to the end of the rod, and in a moment we were dashed to earth through his body. We learned with deep regret that the poor man had been robbed of his life.
To turn to something of a happier nature, I shall proceed to tell you of some of my earliest recollections. Remember I shall be speaking of a time long before man existed--even before this great planet was a solid ball.
MY EARLIEST RECOLLECTIONS
_THE SCRIBE'S NOTE ON CHAPTER FIVE_
This great globe upon which we live was once a glowing mass of flaming gas.
It is possible that the whole solar system was once one great mass.
In any case, we have no doubt that the moon is simply the result of a part of our glowing mass having become detached.
In the hottest stars we find only the lightest atoms of matter, such as hydrogen gas, the atoms of heavier substances being found in stars which have begun to cool down.
The electrons have been present from the very beginning, and it is they who go to make up the atoms of matter.
We picture an atom of matter as a miniature solar system of revolving electrons.
There is doubtless a corresponding amount of positive electricity, but so far we have no evidence of its nature.
MY EARLIEST RECOLLECTIONS
Before giving an account of the everyday duties which we perform, it may interest you to hear something of our early history.
Not only have we been on the move ever since the beginning of this world, but some of us have clear recollections of this planet long before it was a solid body. The whole world was a great ball of flaming gas. I have heard some fellow-electrons say that we were attached to a greater mass of incandescent gas before the beginning of this world, but I have no personal recollections of it. But one thing I do remember is a great upheaval which caused a large mass of gas to become detached from our habitation. Without any warning a great myriad of our fellow-electrons were carried away on this smaller mass. At first this detached mass circled around our greater mass at very close quarters, but we soon found that our friends were being carried farther and farther away, until they are now circling around this solid planet at a comparatively great distance. Man calls this detached mass _the moon_, and when I have heard children say in fun that they wish they could visit the man in the moon, I have longed to go and see how it fares with those fellow-electrons who seem to be separated from us in such a permanent manner.
After this exciting event, which I have heard described as "the birth of the moon," our great ball of flaming gas began to cool gradually. But you will be interested in what happened before the moon's birth. I saw a crowd of electrons suddenly congregate together along with _something_ else which man has not discovered. Never mind the other part, but picture a number of electrons forming a little world of their own. There they went whirling around in a giddy dance. I saw these little worlds or "atoms" being formed all around, and I feel truly thankful now that I was not caught in the mad whirl, for these fellow-electrons have been kept hard at it ever since, imprisoned within a single atom. I have met a very few electrons who have escaped from within an atom, but I shall tell you about them later on.
The first thing I noticed was that each of the atoms had practically the same number of electrons in it. At that time I thought only in an abstract way, but since then I have learned that these were _hydrogen_ atoms; hydrogen being the lightest substance known to man. Exactly what happened next I cannot recollect, but my attention was attracted later to larger congregations of electrons forming other little worlds of their own. These atoms were, of course, heavier than the hydrogen atoms. I saw quite a variety of different systems, of which I thought then in an abstract fashion, but which I know now to be atoms of _oxygen_, _nitrogen_, _carbon_, _iron_, _copper_, and so on. While man has given the atoms these distinguishing names, you will understand that the incidents which I am relating took place long before there was any appearance of solidity about our planet; these substances were all in a gaseous state.
After this, I recollect that there was a great envelope of water-vapour condensed around the planet. Some condensed into liquid water upon the surface of the globe, while part was suspended in the form of clouds. Some of my fellow-electrons acted as _nuclei_ or foundations for the formation of the cloud particles. The water which condensed upon the earth settled down in the hollows, which had been produced previously by the immense pressure of the water-vapour envelope. We can hardly believe it is the same world.
You cannot imagine how strange it was to see the great oceans boiling and steaming; of course, they were fresh water then. I need hardly tell you that they have become salt only because the rivers have brought down sodium into them, and when these sodium atoms unite with chlorine atoms they form particles of common salt. I know all about this because we electrons play a very important part in all such combinations.
One very memorable recollection is that of life originating in the oceans. I wish I could let you into the secret of _the origin of life_, but, according to the Creator's plan, man must find out for himself. Your guesses are all wide of the mark.
By the way, perhaps I should explain why I have been selected to write this biography. The first reason is that I am a free or detachable electron, and the second point in my favour is that I have had exceptional opportunities of seeing about me. I have heard men say that lookers-on see most of the game, and as I have witnessed the gradual evolution of things, you will understand that I have views of my own. A casual observer might think that things had deteriorated, for long ago there were immense monsters upon this planet, and these would put all modern creatures in the shade as far as size and strength are concerned. But one of the most interesting things to me has been to watch the evolution of man, and more especially the gradual development of his brain. Indeed, sometimes I have wished that I had happened to be an electron in the brain of a man; but, on the other hand, my career would not have been of the varied kind which it has been.
MAN PAYS US SOME ATTENTION
_THE SCRIBE'S NOTE ON CHAPTER SIX_
Men found that by exhausting the air from glass globes or tubes it was possible to pass electric discharges through them, and in so doing some very beautiful luminous effects were produced within the vacuum tubes.
It was when experimenting with one of these tubes that a scientist suggested that radiant particles were being shot across the tube.
These particles were really electrons, but it was thought at that time that they were atoms of matter.
Another scientist declared, from certain mathematical calculations, that there existed extremely small particles of something around the atoms of matter, and that it was the motion of these in the æther which produced _light_.
People were not willing to accept this theory.
Some time later another scientist was able to prove by experiment that these particles did exist.
This was done by means of the spectroscope, as will be related by the electron in a later chapter.
MAN PAYS US SOME ATTENTION
From the little I have told you already of our experiences, you will see that men had been making many experiments in which we electrons took a very active part. It was disappointing that even although we had surprised man in so many different ways, he had never become suspicious of our presence. One day, however, we did begin to hope for recognition. I was present, with a great crowd of electrons, imprisoned within a glass globe from which the air had been extracted. We were very pleased to find that the surrounding space had been cleared of air, for it was apparent that the experimenter was going to make us jump across from one end of the glass tube to the other.
A crowd of us had collected on the extremity of a wire, or "electrode," at the one end of the tube, while another similar crowd was present on the other electrode at the opposite end of the tube. While I speak of a crowd, meaning that there were millions of us, I do not suggest that we were overcrowded, for we had plenty of elbow-room to move about on the atoms to which we were attached. All in a moment the scene was changed. We felt a crowd of electrons pressing us forward and forcing us right up to the very end of the electrode. We found that the crowd was approaching by a wire leading into the tube. Soon the crowding had reached such a condition that we became alarmed; we could see no way of escape. We were imprisoned by the glass walls, but we soon discovered that many of the electrons who had been stationed on the other electrode had deserted their posts and fled along a wire leading out of the tube. If we could only follow them. It would be a tremendous jump to get over to the other wire, but the way was fairly clear of air. When the overcrowding reached a certain point we were literally shot across from the one electrode to the other. This was the first time I had ever experienced anything of the kind, but many fellow-electrons had gone through similar performances for years at the hands of other experimenters.
However, it was somewhat alarming to be fired off like a rocket across the tube. What happened after that I cannot recollect, but some time later I was present in that or a similar tube when I heard the experimenter say to a friend that he believed there were particles flying across his tube. We sent news all along the line stating that at last we had been discovered, and I can assure you that we felt proud. But our joy was not long-lived, for it turned out that we were considered to be particles or atoms of matter; the experimenter spoke of us as "radiant matter." This was a real disappointment.
It took us some time to recover from our disappointment at being mistaken for clumsy atoms of matter. We are of a higher order of things altogether. No atom of matter can travel at speeds such as we can. We cross these vacuum tubes with speeds equal to millions of miles per minute.
A great many of us were kept busy within vacuum tubes by other experimenters, but nothing very exciting happened. Indeed, we had lost all hope of attracting man's attention to ourselves as long as we were imprisoned within these tubes. In the meantime our hopes were revived by news which reached us from another quarter.
We heard that a very learned man had declared boldly that there did exist little particles which revolved around the atoms of matter, and that it was the motion of these tiny particles in the æther which produced the well-known waves of _light_. There was considerable rejoicing among us, for we were anxious to have our services recognised by man. This great man was not guessing merely; he was willing to prove by mathematical calculations that we did exist in reality. Of course, we ourselves required no proof of our existence, but we believed that man would be convinced. Our high hopes were soon laid low; news reached us that people were shaking their heads and saying that figures could be made to prove anything.
After we had settled down to our ordinary duties, we got word that at last man had really detected us in a flame of gas. This seemed quite reasonable, for, as I shall relate to you in another chapter, we have a very lively time of it in a flame of gas. However, when we were informed that man had discovered us by means of a sort of telescope arrangement, I, for one, began to doubt the truth of the discovery. Some time before this I had heard that men were spying at gas flames in the hope of finding us, and this seemed most ridiculous, for if man could not see the large congregations of us called _atoms_, how could he expect to see individual electrons? My ignorance was dispelled when it was explained that man had not been looking for us directly, but for the æther waves which we produce. But I have not had an opportunity of explaining to you how some of us produce waves in the æther; I shall have to wait till a later chapter. In the meantime I may say that since this important discovery I have taken some part in an experiment similar to the historic one wherein we were detected, but of that too I shall have more to say again.
The rejoicing at this discovery was not confined to us, for men of science were quick to grasp the importance which was attached to this new knowledge. We felt that man was bound to acknowledge our services from that day. The next event was our christening, and this was not all plain sailing. Indeed, we have been rather annoyed with one name which some good friends persist in giving us. I refer to the name _corpuscle_, which we feel to be a sort of nickname, although it may have been suggested in all kindness. It may be difficult for you to appreciate our dislike to this name, but it seems to us to savour too much of material things. It is not dignified; you must remember we are not matter. We are delighted with what we prefer to call our real name--electron--for that speaks of electricity. As you know, we are units of particles of negative electricity, and so this seems a most sensible and suitable name. But I must hasten to tell of some of our everyday duties in which we serve man.
_THE SCRIBE'S NOTE ON CHAPTER SEVEN_
The steady motion of electrons from atom to atom along a wire, or other conductor, constitutes the well-known "electric current."
The moving electrons disturb the æther around the wire and produce what we know as a "magnetic field."
The electron explains why it is necessary to have a complete circuit before any electric current can take place.
The electron speaks directly to the reader, introducing itself as a tireless worker within atoms. It describes marching along wires, disturbing the surrounding æther to transmit energy, and insists that the wire itself is merely a guide. This first-person perspective transforms abstract physics into a personal narrative, where electrons in armature coils surge to and fro while those in electromagnets march steadily. The voice is confident, even amused at human misconceptions—such as the idea that atoms produce æther waves. The electron corrects this, explaining that only electrons can disturb the æther, since matter offers no resistance to it.
A First-Person Physics
The book adopts an unusual narrative stance: an electron tells its own story. This choice shapes every explanation. When describing how a tramway car moves, the electron recounts its own actions: “we electrons receive an impulse from our friends in the line-wire which causes us to retrace our steps.” The language is collective and purposeful, as if electrons form a cooperative workforce. The narrator frequently addresses the reader directly, using phrases like “you will find it difficult to believe me” and “you must have realised by this time.” This conversational tone aims to make complex ideas feel immediate and personal. The electron also admits limitations: atoms play “a very important part,” but without electrons, energy could not be transmitted. The narrative thus balances self-promotion with grudging acknowledgment of matter’s role.
Recurring Images: Marching, Surging, and Disturbing the Æther
Three images recur throughout the excerpts: electrons marching, surging, and disturbing the æther. Marching describes steady movement in one direction, as in the electromagnet. Surging implies a back-and-forth motion, as in the armature coil. Disturbing the æther is the mechanism by which energy is transmitted—electrons do not carry energy themselves but agitate the surrounding medium. The electron explains: “while we electrons move from atom to atom in the connecting wire, it is the disturbed æther surrounding us which transmits the energy.” This image is repeated for different applications: bells, telegraphs, telephones, and tramways. The æther becomes a constant companion, and the electron stresses the “very intimate relationship between ourselves and the æther.” The repetition of these images gives the book a rhythmic, almost mechanical consistency.
Movement Between Scenes: From Tramways to Sunlight
The narrative moves fluidly between scales and settings. One moment the electron is inside a tramway motor, describing the interplay of armature and electromagnet coils. The next, it is explaining how light and heat travel from the sun. The transition is abrupt but logical: the same principles of æther disturbance apply. The electron notes that “every living thing is dependent upon our activities” and that it is electrons who “send out heat and light from the sun.” The shift from a man-made machine to a cosmic phenomenon is handled without pause, reinforcing the idea that electrons operate identically in both contexts. The book also moves between explaining how electrons produce an aurora and how the earth became negatively electrified. These jumps in scale—from wire to planet—are presented as natural extensions of the same story.
The Scribe’s Interjections and the Narrative Frame
The book includes a framing device: a “Scribe” who introduces chapters and occasionally comments. In Chapter XIII, the Scribe’s note appears before the electron’s narrative, summarizing what the electron will explain. This creates a layered structure—the Scribe speaks in third person, while the electron speaks in first. The Scribe’s voice is more conventional, using phrases like “it has been known for a long time” and “the discovery of electrons has given us a reasonable solution.” This contrast highlights the electron’s informal, opinionated tone. The Scribe also provides context that the electron omits, such as historical background. The interplay between the two voices gives the book a dual perspective: one objective and summarizing, the other subjective and experiential. Readers move between these registers, gaining both overview and inside view.
The electron’s voice is consistent: confident, slightly condescending toward human ignorance, and eager to set the record straight. Readers should pay attention to how the narrative shifts between describing electrons as individuals and as a collective. The book’s structure—alternating between the Scribe’s notes and the electron’s monologue—creates a rhythm that mirrors the surging and marching it describes. Approach it as a hybrid: part science explanation, part character study of a subatomic particle.
There’s something touching about an electron narrating its own little life—powering a tram, becoming light—as if the smallest things carry grand stories. It reminded me how early scientific writing let wonder lead. I found myself thinking of The A B C of Relativity — Inside the Classic, another old voice speaking plainly to a quieter era. Both feel like letters from a slower mind.
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