艾萨克·牛顿

Isaac Newton (1643-1727) was an English physicist, mathematician, and natural philosopher who fundamentally transformed humanity's understanding of the physical universe. His three laws of motion and law of universal gravitation provided the mathematical framework that explained everything from falling apples to planetary orbits, unifying terrestrial and celestial mechanics for the first time. He co-invented calculus, revolutionized optics by demonstrating that white light contains all colors, and built the first practical reflecting telescope. His masterwork, Principia Mathematica (1687), is arguably the most important scientific publication in history. Alongside Albert Einstein, Newton stands as one of the two physicists whose work most profoundly shaped modern civilization. His discoveries laid the foundation for the entire Scientific Revolution and the technological world we inhabit today.

The apple story is partially true but often embellished. Newton himself told the anecdote to multiple people, including his friend William Stukeley, who recorded it in 1726. According to Newton, he was contemplating gravity while sitting in his garden at Woolsthorpe Manor when he observed an apple falling from a tree. The apple prompted him to wonder whether the same force that pulled the apple to the ground also extended to the Moon, keeping it in orbit. However, there is no reliable evidence that the apple hit his head — that detail appears to be a later embellishment. The real insight was more profound than a bump on the head: Newton realized that gravity was universal, operating identically on objects on Earth and celestial bodies in space. The apple tree at Woolsthorpe still stands today and is a popular tourist attraction, contributing to the enduring popularity of this foundational scientific legend.

Newton's three laws of motion, published in Principia Mathematica in 1687, form the foundation of classical mechanics. The First Law (Inertia) states that an object at rest stays at rest, and an object in motion stays in motion at constant velocity, unless acted upon by an external force. The Second Law (F=ma) establishes that force equals mass times acceleration, providing the mathematical relationship between force and motion. The Third Law states that for every action, there is an equal and opposite reaction. Together, these three deceptively simple principles explained virtually all mechanical phenomena observable at human scales — from engineering to ballistics to planetary motion. They remained the unchallenged framework for physics for over two centuries until Albert Einstein's theory of relativity revealed them as approximations valid at everyday speeds but breaking down near the speed of light.

Newton's law of universal gravitation, also presented in the Principia, states that every mass in the universe attracts every other mass with a force proportional to the product of their masses and inversely proportional to the square of the distance between them. This single equation (F = GMm/r^2) unified the physics of falling objects on Earth with the orbital mechanics of planets, moons, and comets — a synthesis that contemporaries found almost miraculous. Before Newton, terrestrial physics and celestial astronomy were considered entirely separate domains. His gravitation law allowed precise prediction of tidal patterns, planetary positions, and even the existence of previously unknown planets. It remained the definitive description of gravity until Albert Einstein reframed it as the curvature of spacetime in general relativity (1915), though Newton's formulation remains perfectly adequate for most practical engineering and astronomical calculations today.

Newton developed his version of calculus (which he called 'the method of fluxions') in the mid-1660s, primarily as a mathematical tool for solving physics problems. However, the German mathematician Gottfried Wilhelm Leibniz independently developed his own calculus notation in the 1670s. This led to one of history's most bitter intellectual priority disputes, with partisans of each man accusing the other of plagiarism. Modern historians generally accept that both developed calculus independently. Ironically, it was Leibniz's notation (dy/dx, the integral sign) rather than Newton's that became standard worldwide, despite Newton's chronological priority. The calculus dispute reveals a less admirable side of Newton — he used his position as president of the Royal Society to stack committees investigating the controversy in his own favor. This personal ruthlessness, alongside his scientific genius, makes Newton a complex figure whose JudgeMarket valuation reflects both his achievements and his character flaws.

Philosophiae Naturalis Principia Mathematica (Mathematical Principles of Natural Philosophy), published in 1687, is widely regarded as the most important scientific work ever written. In it, Newton laid out his three laws of motion, the law of universal gravitation, and their mathematical consequences. The work demonstrated that a small set of mathematical principles could explain an enormous range of natural phenomena — from the trajectories of cannonballs to the orbits of planets and comets. It essentially created modern physics as a mathematical science. The Principia was famously difficult even for contemporary mathematicians, and Newton deliberately made it so to discourage dilettantes. Astronomer Edmond Halley funded its publication and practically had to coax Newton into finishing it. Today, surviving first editions sell for millions of dollars, and the work remains a living monument to the power of human reason in understanding nature.

Isaac Newton occupies a top-tier price position on JudgeMarket, consistently ranking among the platform's most valued assets alongside Leonardo da Vinci and Albert Einstein. His OPS price reflects his status as the foundational figure of modern physics and mathematics. Price drivers include scientific anniversaries, educational references, new historical discoveries about his life and work, and broader public interest in physics. His price tends to correlate strongly with Einstein's and moves inversely with anti-science cultural sentiments. Newton benefits from near-universal name recognition — virtually every person who has attended secondary school has encountered his laws. Traders often use Newton as a 'science sector benchmark' against which other scientific figures are measured. His deep liquidity and stable demand make him suitable for large position sizes without significant slippage.

Newton's personality was notoriously difficult. He was deeply private, prone to paranoia, and capable of nursing grudges for decades. His feuds were legendary: with Robert Hooke over optics and gravity priority, with Leibniz over calculus, and with John Flamsteed over astronomical data. He suffered at least two major nervous breakdowns, one in 1678 and another in 1693, possibly linked to mercury poisoning from his extensive alchemical experiments. He never married and had few close personal relationships. He was intensely religious but heterodox, secretly rejecting the Trinity — a heresy that would have destroyed his career if discovered. Despite these personal challenges, his intellectual discipline was extraordinary. His famous quote 'If I have seen further, it is by standing on the shoulders of giants' is often cited as humility but may have been a barb directed at the short-statured Hooke.

Newton's contributions to optics were revolutionary. Through his famous prism experiments in the 1660s, he demonstrated that white light is not pure but rather a mixture of all the colors of the spectrum — a finding that overturned centuries of belief that prisms added color to light rather than revealing colors already present. He published these findings in Opticks (1704), which became nearly as influential as the Principia. He also built the first practical reflecting telescope (the Newtonian reflector) in 1668, using a curved mirror instead of a lens to avoid chromatic aberration. This design remains widely used in astronomy today. His particle theory of light, though eventually superseded by wave theory and quantum mechanics, drove productive scientific debate for centuries. Newton's optical work demonstrated his empirical rigor — he performed experiments with extraordinary precision and let data drive conclusions rather than fitting data to preconceived theories.

Yes, and this aspect of Newton's life has fascinated scholars since John Maynard Keynes described him as 'the last of the magicians' after examining his private papers. Newton wrote over a million words on alchemy — more than on physics or mathematics. He conducted extensive alchemical experiments in a private laboratory, seeking the Philosopher's Stone and attempting to transmute base metals into gold. He also devoted enormous effort to biblical chronology and prophecy interpretation, attempting to decode the exact date of the apocalypse. Far from being separate from his scientific work, these interests shared a common motivation: Newton believed the universe contained hidden truths encoded by God, and that careful investigation — whether through mathematics, chemistry, or scripture — could reveal them. This complex intellectual portrait makes him more human and more fascinating than the purely rational genius of popular imagination.

In 1696, Newton was appointed Warden of the Royal Mint, and in 1699 became Master of the Mint — a position he held until his death in 1727. Initially considered a political sinecure, Newton threw himself into the role with characteristic intensity. He personally oversaw the Great Recoinage of 1696, replacing England's debased silver currency with new coins. He aggressively pursued counterfeiters, going undercover in taverns and prisons to gather intelligence, and successfully prosecuted numerous criminals including the notorious William Chaloner, who was hanged. Newton also managed the transition to the gold standard, establishing the guinea's value at 21 shillings — a ratio that effectively placed Britain on the gold standard decades before it became official policy. His financial management skills add an interesting dimension to his JudgeMarket profile, connecting him to the world of monetary systems and economic governance.

The Newton vs. Einstein comparison is one of science's perennial debates. Newton created classical mechanics from scratch — laws of motion, universal gravitation, calculus, and optics — essentially inventing modern physics. Einstein revised Newton's framework with special and general relativity, revealing that space and time are flexible and gravity is geometric. In terms of sheer scope of original contribution, Newton arguably accomplished more, as he built the foundations Einstein later refined. Einstein's work was more conceptually radical, requiring abandonment of intuitive notions about absolute space and time. On JudgeMarket, both trade at premium prices with strong positive correlation. Newton tends to slightly trail Einstein in OPS price, largely because Einstein's image has more pop-culture penetration (the wild hair, E=mc^2, the tongue photo). Smart traders monitor the Newton-Einstein spread for relative value opportunities when one becomes temporarily over- or under-valued.

Newton is a core science-sector holding on JudgeMarket with several viable trading approaches. For fundamental investors, he represents deep value — his contribution to human knowledge arguably justifies a higher price than the market typically assigns, creating persistent alpha opportunities on dips. Event-driven traders should watch for physics breakthroughs, space missions (which invoke Newtonian mechanics), and educational policy changes that affect science curriculum exposure. Pair Newton with Albert Einstein for a market-neutral physics spread trade that profits from relative shifts rather than directional moves. For cross-sector diversification, combine Newton with Leonardo da Vinci (art+science) and Adam Smith (economics) to construct a complete Enlightenment-era portfolio. Newton's price support is exceptionally strong due to his foundational educational presence — every physics student worldwide encounters his work, ensuring a constantly refreshed base of culturally engaged potential traders.

In a 1675 letter to Robert Hooke, Newton wrote: 'If I have seen further, it is by standing on the shoulders of giants.' This phrase is commonly interpreted as a humble acknowledgment that his discoveries built upon earlier work by scientists like Galileo, Kepler, and Copernicus. However, historians have noted potential layers of meaning. The phrase was not original to Newton — it traces back to Bernard of Chartres in the 12th century. More intriguingly, Robert Hooke was reportedly short in stature, leading some scholars to interpret Newton's 'giants' comment as a veiled insult, implying Hooke was no giant. Given Newton's well-documented vindictiveness toward Hooke, this reading is plausible. Regardless of intent, the quote has become one of the most famous in the history of science, frequently cited in academic contexts and even engraved on the British two-pound coin, reinforcing Newton's cultural omnipresence.

Isaac Newton is one of the strongest long-term holds on JudgeMarket. His reputation rests on discoveries so fundamental that they cannot be displaced — his laws of motion are literally taught to every physics student on Earth and will continue to be for the foreseeable future. Unlike figures whose legacies depend on cultural fashion or political interpretation, Newton's contributions are empirically verifiable facts about the physical universe. The main reputational risk is the ongoing historical reassessment of his personality — his vindictiveness, possible mental illness, and alchemical obsessions make him a more complex and less cuddly genius than popular mythology suggests. However, this complexity actually stabilizes his price by making simplistic narratives less likely to inflate or deflate his value. For long-term portfolios, Newton pairs ideally with Leonardo da Vinci and Charles Darwin as a 'scientific revolution triad' with deep, independently supported demand bases.