Linked from

The 39 pages that link to Richard Feynman, each with the reason it gives.

• California Institute of TechnologyRelated: His research and lectures became closely associated with Caltech’s intellectual culture.

• Feynman diagramRelated: He introduced the diagrammatic method that bears his name.

• Deep inelastic scatteringRelated: His parton model gave a simple interpretation of the scaling seen in electron scattering.

• Paul DiracCompared with: Feynman later supplied a distinct calculational framework for the quantum electrodynamics Dirac helped found.

• Hans BetheRelated: Feynman worked in Bethe’s Los Alamos division and later collaborated with him on quantum electrodynamics.

• Murray Gell-MannRelated: Feynman’s partons offered a competing account of the constituents probed inside protons.

• Path integral formulationRelated: Feynman established the formulation’s modern quantum-mechanical form.

• RenormalizationRelated: His diagrams made renormalized perturbative calculations more systematic.

• Julian SchwingerRelated: He shared the 1965 Nobel Prize with Schwinger for work on quantum electrodynamics.

• Trinity testRelated: Feynman later recounted watching the flash through a truck windshield during the test.

• Parton distribution functionRelated: His model supplied the name and initial physical picture behind the distributions.

• Double-slit experimentRelated: He presented the two-slit experiment as a compact statement of quantum mechanics' central puzzles.

• Vacuum polarizationRelated: His diagrams made loop contributions to electromagnetic processes calculable.

• Bjorken scalingRelated: His model gave scaling a constituent-based physical interpretation.

• MITRelated: His early education at MIT preceded a prominent career in physics.

• Feynman–Kac formulaRelated: His path-integral ideas helped establish the formula's connection between trajectories and evolution equations.

• Freeman DysonRelated: Dyson showed how Feynman’s methods connected to other formulations of quantum electrodynamics.

• Sin-Itiro TomonagaRelated: Feynman independently produced a distinct, equivalent approach to the theory.

• Wu experimentRelated: Feynman and Murray Gell-Mann developed a theory of weak interactions consistent with the new evidence.

• John Archibald WheelerRelated: Feynman completed his doctoral research under Wheeler’s supervision at Princeton.

• Lyman SpitzerRelated: Feynman chaired the committee that investigated the Space Shuttle Challenger disaster after Spitzer's lifetime.

• NanomedicineRelated: His lecture helped inspire later interest in engineering matter at nanoscale dimensions.

• Burton RichterRelated: Feynman was Richter’s doctoral adviser at the California Institute of Technology.

• Feynman rulesRelated: His notation and prescriptions gave the rules their name.

• James RainwaterRelated: Feynman and Rainwater were both prominent Columbia physicists in the postwar era, though their research centered on different problems.

• Rudolf MössbauerRelated: Feynman independently proposed a related recoil-free resonance process in 1957.

• The Feynman Lectures on PhysicsRelated: His lectures supplied the central voice and conceptual style of the textbook.

• Willis LambRelated: Feynman’s independent QED formulation accounted for radiative corrections such as the Lamb shift.

• Hans Georg DehmeltRelated: Dehmelt’s precision measurements tested predictions of the quantum electrodynamics Feynman helped develop.

• Kenneth G. WilsonRelated: Wilson studied at Caltech, where Feynman’s approach to field theory influenced the intellectual setting.

• PartonRelated: He named and developed the model that gives these constituents their term.

• Wheeler–Feynman absorber theoryRelated: His early work with Wheeler developed the direct-action absorber account.

• Alan LightmanRelated: Feynman exemplifies the combination of scientific achievement and public communication that interests Lightman.

• Hellmann–Feynman theoremRelated: His 1939 paper derived the relation for forces in molecules.

• Molecular engineeringRelated: His vision of manipulating matter atom by atom helped frame nanoscale engineering.

• Nanoelectromechanical systemsRelated: His 1959 lecture, “There's Plenty of Room at the Bottom,” anticipated manipulation and engineering at small scales.

• NanoscienceRelated: His 1959 talk proposed manipulating matter at small scales, anticipating themes of nanotechnology.

• Schwinger's quantum action principleCompared with: His path-integral approach offers a distinct action-centered route to quantum dynamics.

• Shin'ichirō TomonagaRelated: Feynman’s independent QED methods were honored alongside Tomonaga’s in the same Nobel Prize.