A Truly Beautiful Mind

This chapter is a short life story of Albert Einstein, the physicist whose name became a byword for genius in the twentieth century. It helps to be clear from the start about what kind of writing it is. There is no plot, no dialogue between characters and no single scene to picture. A narrator, writing as a biographer, takes us through Einstein's life in order, from the worrying first months after his birth to the last years, when an old and very famous man spent his strength arguing for peace.

The title tells you how the writer wants you to look at him. A mind may be called beautiful when it is original, when it refuses to accept an answer only because everybody around it accepts that answer, and when it is used for something larger than the owner's own comfort or fame. By the closing paragraphs you are meant to feel that Einstein's mind was beautiful in both of those ways. It produced ideas that nobody had thought of before, and it was deeply troubled by the use the world went on to make of them.

Because this is a biography, dates and events carry real weight. Yet the chapter is not a bare list of dates. The writer keeps returning to one contrast: the boy whom playmates found dull, and whom a headmaster once wrote off, grew into the man whose thinking changed physics. That gap between the early judgement and the later achievement is the shape of the whole piece, and these notes keep coming back to it.

One more habit of reading is worth building here. Notice the difference between what the narrator states as fact and the opinions the narrator merely reports. When the chapter reports that a headmaster thought little of the boy, that is the headmaster's opinion, not the writer's. When Einstein's own remarks or letters are referred to, those are his views, not the biographer's. Keeping these voices apart is the difference between a careful answer and a careless one, because the same sentence can be true as a report and false as a claim.

Albert Einstein was born on 14 March 1879 in Germany. The chapter opens with something a life story of a great scientist does not usually begin with, which is the family's worry. His mother was alarmed by the shape and size of the newborn's head and feared that something was wrong with the child. Nothing was wrong, but that early fear sets the tone for the whole first part of the chapter.

Speech came late. He was about two and a half and still not talking, and when he did begin, he had the odd habit of saying everything twice. Other children found him poor company. He did not know what to do with them, and his playmates gave him a mocking nickname, Brother Boring. A child who is slow to speak is often assumed to be slow to think, and the chapter quietly shows how badly wrong that assumption can be.

Two things about these early years matter for your answers. The first is that he spent much of his time playing on his own, and was especially fond of mechanical toys. A child who plays alone patiently is practising, without knowing it, the exact quality a theoretical physicist needs later, which is the willingness to sit with one problem for a long time with nobody watching and nobody clapping. The second is that music entered his life early. His mother was herself a gifted pianist and made sure he learned the violin from the age of six, and he went on playing it for the rest of his life. The violin is not a decorative detail. It tells you that this was not a dry, calculating mind but one that needed pattern and beauty.

Read this part of the chapter as a warning against early labels. Nobody looking at that quiet, late speaking boy could have guessed what was coming, and the writer wants you to feel that surprise. So when a question asks what his childhood tells us about him, the answer is not simply that he was slow. It is that he was different, self contained and unhurried, and that these were strengths wearing the clothes of weaknesses.

School was the first place where Einstein's mind and the world collided. He was strong in mathematics and in physics, so the trouble was never the subjects themselves. The trouble was the method. His high school ran on strict discipline and regimentation: lessons were learnt by heart and given back on demand, and pupils were expected to obey rather than ask. He scored good marks in almost every subject, yet he hated that atmosphere and clashed with his teachers again and again. A headmaster had already told his father that whatever profession the boy chose would make no difference, because he would never make a success of anything.

He was unhappy enough that at the age of fifteen he left that school for good. His parents had moved to Italy the year before, leaving him behind with relatives, so there was little left in Germany to hold him.

Switzerland changed things. The teaching he met there was freer, students were encouraged to work things out rather than to recite them, and he did well almost at once. He went on to study at a university in Switzerland and graduated in 1900, at the age of twenty-one, qualified to teach mathematics and physics. Notice the pattern carefully, because it is the most useful idea in this part of the chapter. The same young man whom one system had treated as a failure did well in another. It was not the pupil who had changed; it was the classroom around him. That is what makes this part of the chapter useful when you are asked to write about education.

Among his fellow students was Mileva Maric, who had come to Switzerland from Serbia because it was one of the few places in Europe where a woman could take a university degree. He thought her clever, she cared about the same problems, and she was better at mathematics than he was. In her he found an ally against the people in his family and at the university with whom he was forever quarrelling, somebody who would argue about ideas with him as an equal. That is why the chapter calls her an ally and not simply a friend. They married in 1903 and had two sons.

A degree did not bring a teaching post, and at twenty-one Einstein was a graduate without a job. He worked as a teaching assistant and gave private lessons before being appointed in 1902 as a technical expert at the patent office in Switzerland, where his work was to assess other people's inventions and judge whether an idea was new and whether it would work. That sounds like a dead end for a great physicist. In fact it suited him almost perfectly. The work was steady, it trained him to strip an invention down to the single idea that made it work, and it left his mind free.

He used that freedom. Behind the official files he was quietly developing ideas of his own, and he is said to have joked that the drawer of his desk was his bureau of theoretical physics, since that was where the unofficial papers lived. The joke is worth remembering, because it shows work of the first importance being done in stolen hours by a young office worker with no laboratory, no academic post and no salary for it.

In 1905, still employed at the patent office, he published a group of papers that changed physics. One of them set out the special theory of relativity. Put very simply, it says that there is no fixed, absolute standard of rest in the universe, that measurements of time and distance depend on how the observer is moving, and that the speed of light comes out the same for every observer. A short paper that followed gave the relation E = mc², which says that mass and energy are two forms of one thing, and that a very small quantity of matter corresponds to an enormous quantity of energy. He completed his doctorate in the same period.

Ten years later he extended the idea into the general theory of relativity, completed in 1915, which describes gravity not as a simple pull but as a bending of space and time around heavy bodies. The theory predicted that starlight passing close to the sun would be bent by a measurable amount. In 1919 measurements made during a total solar eclipse supported that prediction, the result was announced later the same year, and newspapers around the world turned a working physicist into a household name almost overnight. He received the Nobel Prize in Physics for 1921, and it is worth being exact about this: the award was made chiefly for his explanation of the photoelectric effect, and not for relativity.

His personal life did not run as smoothly as his physics. His marriage with Mileva Maric ended in divorce in 1919, and later that year he married his cousin Elsa.

Fame did not protect him. Einstein was Jewish, and as the Nazi party came to power in Germany both his ideas and his person were attacked. In 1933 he left the country, settled in the United States and never lived in Germany again.

Then comes the hardest passage of his life, and the one you must state accurately. By the late nineteen thirties physicists understood that the nucleus of certain heavy atoms could be split, releasing energy, and that a chain reaction was possible. Scientists who had fled Europe were afraid that Germany would build a weapon of an entirely new kind. In 1939, persuaded by one of them, Einstein put his name to a letter addressed to the American President, Franklin D. Roosevelt. The letter warned that bombs of a completely new kind and enormous destructive power might now be built, and urged the United States to take the possibility seriously. An American bomb programme followed.

Here is what he did not do, and this matters more than anything else in the chapter. He did not design the bomb, he did not build it, and he did not work on the American project that produced it. His equation relating mass and energy explains why the energy locked in matter is so enormous, but explaining a principle is not the same as making a weapon; that took thousands of other people and years of work. Einstein's part in the story was a warning and a signature.

In August 1945 atomic bombs were dropped on two Japanese cities, and the war ended soon afterwards. Einstein was shaken. He said later that if he had known the German effort would come to nothing, he would never have taken that step at all. He gave the last ten years of his life to a single argument: that weapons of this power had made the old habits of nations impossible, that scientific knowledge must be shared and controlled internationally rather than hoarded by rival states, and that some form of world authority was needed if humanity was to survive its own cleverness. He wrote a public letter to the international body set up after the war, proposing a world government, though that proposal made no impact; he spoke against the arms race and lent his name to appeals for peace.

He died on 18 April 1955, at the age of seventy-six. In his final days he agreed to sign a public appeal, made together with a British philosopher and released later that year, which called on scientists and governments everywhere to remember their common humanity and to settle their disputes without war. That is why the chapter ends by treating him not merely as a great physicist but as a citizen of the world.

Four ideas run through the chapter, and almost every long answer can be built on one of them.

The first is that a slow start is not a verdict. The child who spoke late and bored his playmates became the man whose name stands for intelligence itself. The chapter does not present this as a miracle. It shows you the qualities that were there all along, which were patience, independence and the habit of thinking a thing right through on his own.

The second is the quarrel between curiosity and conformity. Einstein did not dislike learning; he disliked being drilled. Wherever he was told to repeat, he suffered, and wherever he was allowed to ask, he flourished. The contrast between his schooling in Germany and his years in Switzerland is the clearest evidence in the text, and it is evidence a reader can use to think about education in general.

The third is that knowledge carries responsibility. The same mind that wrote a short and beautiful equation had to live in a century that turned physics into weapons. His warning letter, his regret afterwards and his years of campaigning belong to the same life as the papers of 1905, and the writer places them in the same story deliberately.

The fourth is the price of fame. After 1919 he was public property, photographed, quoted and followed, while the work that had made him famous was done quietly, years earlier, by an unknown patent office employee with a drawer full of private papers.

A word now on the writing itself. The structure is straightforward and chronological, with dates working as signposts, so the reader always knows where in the life the paragraph stands. The tone is plain and factual rather than admiring, which makes the few evaluative touches land harder when they come. The writer leans on contrast throughout: dull child against celebrated genius, patent clerk against world figure, a clean equation against messy politics. And the writer often reports what other people thought of Einstein, whether his mother, a headmaster, his playmates or journalists, so that we see him from the outside before we are told what he was really like. When you write about the craft of the piece, name the device and then give the example, because a device named without an example explains nothing.

There are a handful of factual slips that spoil otherwise good answers on this chapter, and every one of them is easy to avoid once you have seen it.

Do not write that Einstein was weak in mathematics. That is a popular story with no support in this chapter. He was strong in mathematics and physics, and his complaint was about how he was taught, not about what he was taught.

Keep the two theories apart. The special theory of relativity belongs to 1905 and the general theory to 1915, and the eclipse measurements that supported the general theory belong to 1919. Blurring these into one event makes a whole paragraph unreliable.

Be exact about the Nobel Prize. He received it for 1921, and the award was made chiefly for his work on the photoelectric effect rather than for either theory of relativity. That distinction is worth one clean sentence in an answer.

Be exact about the bomb. He signed a letter of warning in 1939, and he did not invent, design or build the weapon, nor did he work on the project that produced it. Writing that Einstein made the atomic bomb turns the moral point of the whole chapter upside down.

Now the method. Build a long answer in three moves. Name the stage of his life you are writing about, give one or two specific details from the chapter as evidence, and then say what quality those details reveal. A paragraph that only praises him, calling him great and wonderful and brilliant, says nothing at all. A paragraph that says he did the most important physics of the century in office hours at a patent desk says a great deal in one line.

Finally, write in your own words. This is a biography, the facts belong to everybody, but the sentences should be yours. If you want to refer to something he said, refer to it briefly and then explain what it shows; a short reference you can actually use is worth more than a long one you cannot. And when you mention an opinion, say whose it was, because a headmaster's judgement, a newspaper's excitement and Einstein's own regret are three different things.