Richard P. Feynman Biography Quotes 14 Report mistakes
| 14 Quotes | |
| Born as | Richard Phillips Feynman |
| Known as | Richard Feynman |
| Occup. | Physicist |
| From | USA |
| Spouses | Arline Greenbaum (1942-1945) Mary Louise Bell (1952-1958) Gweneth Howarth (1960) |
| Born | May 11, 1918 Queens, New York City, United States |
| Died | February 15, 1988 Los Angeles, California, United States |
| Aged | 69 years |
Richard Phillips Feynman was born in 1918 in New York City to Melville Feynman, a sales manager with a deep curiosity about science, and Lucille Feynman, whose humor and warmth balanced the family. Encouraged by his father to question everything, he cultivated a hands-on style of learning, repairing radios as a teenager and devising clever tricks to visualize physical problems. His younger sister, Joan Feynman, would become an accomplished astrophysicist, reflecting the family's enduring commitment to scientific inquiry. Feynman studied physics at the Massachusetts Institute of Technology, where his aptitude for problem solving and appetite for clarity took root. He then pursued graduate work at Princeton University, where the theoretical physicist John A. Wheeler became a central mentor. With Wheeler he developed what became known as the Wheeler-Feynman absorber theory, an early sign of his willingness to recast conventional formulations in strikingly fresh terms.
Manhattan Project and Wartime Work
During World War II, Feynman joined the Manhattan Project at Los Alamos, where J. Robert Oppenheimer directed a sprawling scientific enterprise. In the theoretical division led by Hans Bethe, Feynman organized and streamlined calculation teams, applying practical ingenuity to speed up essential computations for bomb design. Colleagues recall his exuberant energy, safe-cracking antics, and knack for enlivening long days of mathematical labor. He interacted with visiting luminaries, including Niels Bohr, and gained an enduring sense of how large collaborative science functions under pressure. Amid the intensity, his first wife, Arline Greenbaum, with whom he shared a bond of affection and intellectual companionship, died in 1945 after a long illness; the loss marked him deeply.
Cornell, Caltech, and the Growth of a New Voice
After the war, Hans Bethe recruited Feynman to Cornell University. There he wrestled with postwar malaise before a small epiphany involving the dynamics of a spinning cafeteria plate helped rekindle his joy in physics. By the late 1940s he crafted a new approach to quantum theory: the path integral formulation and a diagrammatic method for computing interactions in quantum electrodynamics. Freeman Dyson powerfully clarified and connected Feynman's methods with those of Julian Schwinger and Sin-Itiro Tomonaga, establishing a unified and practical toolkit. In 1950 Feynman moved to the California Institute of Technology, which would remain his academic home for the rest of his career. At Caltech he worked alongside Murray Gell-Mann, often in lively intellectual exchange, as the institute developed into a powerhouse of theoretical physics.
Scientific Contributions
Feynman's most celebrated achievements lie in quantum electrodynamics (QED). His path integrals reframed quantum mechanics as a sum over histories, and his eponymous diagrams provided a visual and computational language that transformed particle theory. For this work he shared the 1965 Nobel Prize in Physics with Julian Schwinger and Sin-Itiro Tomonaga. He also made influential contributions beyond QED: he explained aspects of superfluidity in liquid helium by revealing the quantum nature of vortices and excitations; with Murray Gell-Mann he helped shape the V-A (vector minus axial vector) theory of weak interactions; and in the late 1960s he proposed the parton model to interpret deep inelastic scattering, offering a picture of hadrons as assemblages of pointlike constituents that complemented the emerging quark paradigm.
Teacher, Author, and Public Voice
Feynman was a renowned teacher whose clarity, candor, and delight in discovery left a permanent imprint on physics education. At Caltech in the early 1960s he delivered a sweeping introductory course that became The Feynman Lectures on Physics, assembled with Robert B. Leighton and Matthew Sands; the volumes' blend of rigor and intuition influenced generations of students. He gave the Messenger Lectures at Cornell, later published as The Character of Physical Law, probing the nature of explanation and symmetry in physics. His technical text Quantum Mechanics and Path Integrals, coauthored with Albert R. Hibbs, distilled his distinctive approach to the subject. Later in life he reached an even broader audience through lively autobiographical collections such as Surely You're Joking, Mr. Feynman! and What Do You Care What Other People Think?, developed with Ralph Leighton, which portrayed his curiosity, skepticism, and playfulness.
Global Engagement and Culture
Feynman's curiosity extended far beyond the laboratory. He spent time teaching in Brazil, where he immersed himself in local culture, played the bongo drums, and reflected candidly on educational practices. He delighted in puzzles, lock-picking, and offbeat explorations of language and art, weaving his skepticism of authority with a persistent drive to understand the world directly. Colleagues at Caltech, including David Goodstein and Murray Gell-Mann, saw daily how his informal style coexisted with deep seriousness about getting the physics right.
The Challenger Investigation
In 1986 Feynman served on the presidential commission investigating the Space Shuttle Challenger disaster, chaired by William P. Rogers and including figures such as Neil Armstrong and Sally Ride. Feynman's independent probing of engineering decisions and materials performance culminated in a simple, devastating demonstration of how an O-ring lost elasticity in cold temperatures, a moment emblematic of his insistence on aligning institutional narratives with physical reality. His appendix to the commission report emphasized that nature cannot be fooled, and that scientific honesty must anchor complex technological enterprises.
Personal Life
Feynman's personal life was marked by resilience and renewal. After Arline Greenbaum's death, he later married Mary Louise Bell; the marriage ended, and in 1960 he married Gweneth Howarth, with whom he shared a long partnership. They raised two children, Carl and Michelle, while building a home life that balanced his research with music, travel, and the joys of parenting. Throughout, friends and colleagues recalled his generosity with time and ideas, as well as a mischievous wit that enlivened seminars and corridors alike.
Later Years and Passing
In his final years Feynman faced serious illness, undergoing treatments and surgeries while continuing to lecture, write, and mentor younger scientists. Even as health challenges mounted, he sustained an active intellectual life, pursuing questions ranging from the foundations of computation to the pedagogy of physics. He died in 1988 in California. Those who knew him remembered not only an extraordinary theorist but a person who insisted on seeing with his own eyes, testing claims against experiment, and communicating insights with unadorned clarity.
Legacy
Richard P. Feynman left a legacy that spans technical innovation, educational transformation, and a public philosophy of science grounded in doubt, honesty, and joy. His diagrams reshaped particle physics; his path integrals opened new vistas across fields; and his parton picture helped decode the internal structure of matter. As a teacher at Caltech, a colleague of Hans Bethe, John A. Wheeler, Murray Gell-Mann, and Freeman Dyson, and a collaborator with Robert B. Leighton, Matthew Sands, Albert R. Hibbs, and Ralph Leighton, he fostered a culture of clarity and creativity. His books and lectures continue to welcome newcomers into the enterprise of physics, while his example on the Challenger commission stands as a reminder that scientific integrity is a civic duty. Beyond prizes and positions, Feynman's enduring influence rests in a way of thinking: to look for the simplest account consistent with nature, to challenge pretense, and to delight in the adventure of finding things out.
Our collection contains 14 quotes who is written by Richard, under the main topics: Witty One-Liners - Truth - Nature - Science - Legacy & Remembrance.
Other people realated to Richard: Enrico Fermi (Physicist), Paul Dirac (Physicist), Neil Armstrong (Astronaut), J. Robert Oppenheimer (Physicist), Edward Teller (Physicist), K. Eric Drexler (Scientist), John Archibald Wheeler (Physicist), Henry W. Kendall (Scientist), Steven Weinberg (Scientist), Jerome Isaac Friedman (Physicist)
Frequently Asked Questions
- Richard Feynman books: Surely You're Joking, Mr. Feynman!; What Do You Care What Other People Think?; The Feynman Lectures on Physics; QED: The Strange Theory of Light and Matter; Six Easy Pieces.
- Richard Feynman Nobel Prize: 1965 Nobel Prize in Physics for QED, shared with Julian Schwinger and Sin-Itiro Tomonaga.
- Richard Feynman children: Two: Carl and Michelle (adopted).
- Surely You're Joking, Mr Feynman: His 1985 memoir of autobiographical anecdotes (Adventures of a Curious Character).
- Richard Feynman love letter: The famous 1946 letter to Arline written after her death, professing undying love.
- Richard p Feynman letter to wife: A 1946 letter to his late wife Arline, expressing enduring love; found unopened after his death.
- Richard Feynman cause of death: Abdominal cancer.
- How old was Richard P. Feynman? He became 69 years old
Richard P. Feynman Famous Works
- 1999 The Pleasure of Finding Things Out (Collection)
- 1998 The Meaning of It All: Thoughts of a Citizen-Scientist (Book)
- 1988 What Do You Care What Other People Think?: Further Adventures of a Curious Character (Memoir)
- 1985 Surely You're Joking, Mr. Feynman!: Adventures of a Curious Character (Memoir)
- 1985 QED: The Strange Theory of Light and Matter (Book)
- 1982 Simulating Physics with Computers (Essay)
- 1965 The Character of Physical Law (Book)
- 1964 The Feynman Lectures on Physics (Book)
- 1959 There's Plenty of Room at the Bottom (Essay)
- 1949 Space–Time Approach to Quantum Electrodynamics (Essay)
- 1949 The Theory of Positrons (Essay)
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