Physical Review D

Physical Review D. It is a premier peer-reviewed scientific journal published by the American Physical Society, focusing on the fields of particle physics, field theory, gravitation, and cosmology. Established in 1970, it has become one of the core publications for theoretical and experimental research in fundamental physics, publishing thousands of articles annually. The journal is a direct descendant of the original Physical Review, which was founded in 1893, and its creation marked a specialization within the growing family of APS journals.

History and scope

The journal was launched in January 1970 as part of a broader reorganization of the American Physical Society's publication portfolio, which also saw the creation of Physical Review A and Physical Review B. This split was necessitated by the rapid post-war expansion of physics, particularly in areas like elementary particle theory and the emerging study of general relativity and cosmology. Its scope formally encompasses particles, fields, gravitation, and cosmology, providing a dedicated forum for research that was previously published in the undivided Physical Review. Over the decades, it has chronicled major theoretical developments, including the consolidation of the Standard Model, the exploration of supersymmetry, and the rise of string theory. The journal's purview also includes related areas of nuclear physics and astrophysics when they intersect with its core themes.

Content and article types

The journal publishes a wide variety of article types, including regular research papers, brief reports, and review articles. The primary content consists of detailed theoretical calculations, phenomenological analyses, and reports on experimental results from facilities like the Large Hadron Collider at CERN and the Laser Interferometer Gravitational-Wave Observatory. Common topics include quantum chromodynamics, Higgs boson physics, dark matter and dark energy models, neutrino oscillations, black hole thermodynamics, and cosmic microwave background anisotropies. It also publishes papers on formal aspects of quantum field theory, lattice gauge theory, and alternative theories of gravity, making it an essential repository for both foundational and applied research.

Editorial process and impact

Manuscripts submitted are handled by a professional editorial staff and subjected to a rigorous single-blind peer review process overseen by an editorial board of active researchers. The journal operates under the auspices of the American Physical Society's editorial offices, with final acceptance decisions made by the editors. It is indexed in major databases such as the Science Citation Index and Scopus, and its impact factor consistently ranks it among the top journals in its field. The high volume of submissions and publications reflects its central role in the global physics community, with rapid publication times for accepted articles being a key feature. Its editorial standards are considered a benchmark for quality in theoretical physics.

Related journals

It is part of the extensive Physical Review family, which includes Physical Review Letters, Physical Review C, and Physical Review E, among others. Closely related journals from other publishers include Journal of High Energy Physics, Nuclear Physics B, and Classical and Quantum Gravity. For more condensed or specialized topics, researchers often also publish in Physical Review A for atomic physics or The Astrophysical Journal for broader astrophysical contexts. The American Physical Society also publishes the review journal Reviews of Modern Physics, which features comprehensive articles on topics frequently covered within its pages.

Notable publications

Throughout its history, the journal has been the venue for many seminal papers that have shaped modern physics. These include influential early papers on quantum chromodynamics and the development of lattice QCD, foundational work on cosmological inflation by Alan Guth and others, and numerous studies predicting the properties of the Higgs boson prior to its discovery at CERN. It has published key theoretical investigations into black hole entropy and Hawking radiation, as well as pivotal phenomenological analyses on dark matter candidates like WIMPs and axions. The papers within its archive collectively form a critical record of the intellectual progress in understanding the fundamental forces and constituents of the universe.