Quantum Electrodynamics focuses on the formulation of quantum electrodynamics (QED) in its most general and most abstract form: relativistic quantum field theory. It describes QED as a program, rather than a closed theory, that rests on the theory of the
Bialynicki-Birula, I +2 more
core
Population-Based Discrimination of Classical and Few-Photon Microwave Fields with a Flux-Tunable Transmon Qudit. [PDF]
Pashchenko AV +6 more
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In Situ Measurement of the Electronic Structure of Oxidized Graphene Employing Quantum-Rate Spectroscopy. [PDF]
Pinzón EF +3 more
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Repulsive inverse-distance interatomic interaction from many-body quantum electrodynamics. [PDF]
Di Cairano L +3 more
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Optical pulling force in carbon nanotubes: Manifestation of non-local conductivity. [PDF]
Berghaus T, Miloh T, Slepyan GY.
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Principles of quantum electrodynamics
Principles of Quantum Electrodynamics concentrates on one of the best understood parts of quantum field theory, quantum electrodynamics. It emphasizes the physical basis of the theory and avoids purely mathematical details.
Massey, H S W, Thirring, Walter Eduard
core
Near-Field Radiative Heat Transfer Between Heavily Phosphorus-Doped Silicon Plates: Effects of Doping Concentration. [PDF]
Wang J +5 more
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Observation of a relativistic analog of the Brewster effect in electron-photon scattering. [PDF]
Schaap B, Lenz M, Musumeci P.
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Entropic Phenomena in Spin-Ice Materials and Magnetic Monopole Excitations. [PDF]
Chappa A, Miao L.
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A Wave-Particle Model of Energy Transfer Between Two Atoms in a Transactional Interpretation of Quantum Mechanics. [PDF]
Watts L, Mead C.
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