Linked from

The 16 pages that link to Julian Schwinger, each with the reason it gives.

• Quantum electrodynamicsRelated: His calculations established a powerful independent route to QED's precision predictions.

• Synchrotron radiationRelated: His 1949 calculation gave a definitive treatment of radiation from relativistic electrons in circular accelerators.

• Richard FeynmanRelated: Schwinger shared the 1965 Nobel Prize with Feynman and Sin-Itiro Tomonaga.

• RenormalizationRelated: He helped establish a consistent renormalized formulation of quantum electrodynamics.

• Anomalous magnetic dipole momentRelated: His 1948 calculation explained the leading electron anomaly as α/(2π).

• Vacuum polarizationRelated: He supplied a systematic framework for calculating radiative corrections, including vacuum polarization.

• Freeman DysonRelated: Dyson’s synthesis connected Schwinger’s formalism with Feynman’s and Tomonaga’s approaches.

• Sin-Itiro TomonagaRelated: Schwinger reached a formulation closely related to Tomonaga’s independently.

• Feynman rulesRelated: His formulation offered a distinct route to the same QED predictions.

• Isidor RabiRelated: Schwinger studied at Columbia during Rabi’s tenure and became one of the university’s major physics figures.

• Edward Mills PurcellRelated: Schwinger and Purcell were prominent Harvard colleagues in postwar theoretical and experimental physics.

• Willis LambRelated: Schwinger’s calculations helped make the Lamb shift part of a successful theory.

• David ThoulessRelated: Schwinger supervised Thouless’s doctoral work at Harvard.

• Masahiro SakuraiRelated: Sakurai studied with Schwinger at Harvard and drew on that theoretical tradition.

• Schwinger's quantum action principleRelated: He introduced and developed the action principle bearing his name.

• Shin'ichirō TomonagaRelated: Schwinger shared the 1965 Nobel Prize with Tomonaga and Richard Feynman for independent QED advances.