Physical review b

Physical Review B (physical-review-b)

Journal positioning

Physical Review B is the APS journal of record for condensed matter physics and materials physics — the highest-volume journal in the Physical Review family and the primary archival venue for the condensed-matter community worldwide. PRB covers the full breadth of the field, from strongly correlated electrons and topological phases to semiconductor physics, magnetic materials, superconductivity, nanoscale systems, and the electronic-structure and computational methods that underpin the field. Like all archival Physical Review journals, the bar is substantive, rigorous correctness and a real contribution within the subfield — not cross-subfield broad importance. The condensed-matter and materials physics communities worldwide use PRB as the primary literature of record.

This skill is a fit / venue-selection / re-framing tool. It does not replace the journal's current official submission guidelines. Before submitting, re-check the live author instructions on the APS site and the Physical Review B submission system.

When to trigger

• The author is targeting PRB for a condensed matter or materials physics manuscript.
• A result is being evaluated for PRB versus physical-review-letters (broader significance required), physical-review-x (high-impact OA), or nature-physics / nature-materials (Nature-family significance bar).
• The author needs to distinguish PRB's archival culture from the selective Nature-family or PRL cultures.
• A manuscript has been rejected from PRL, PRX, or a Nature journal and needs re-routing to the appropriate archival venue.

Scope & topic fit

• Electronic structure and band theory: DFT, GW, DMFT, and correlated electron methods applied to real materials or model systems.
• Superconductivity: conventional and unconventional superconductors, theory and experiment, pair symmetry, vortex dynamics.
• Topological materials: topological insulators, semimetals, Weyl/Dirac materials, topological superconductors, edge states — both theory and spectroscopic/transport experiment.
• Strongly correlated systems: Mott insulators, heavy fermions, frustrated magnets, Kondo systems, quantum spin liquids.
• Magnetism and spintronics: exchange interactions, spin-orbit coupling, magnon physics, spin transport, multiferroics.
• Nanoscale and low-dimensional systems: 2D materials, quantum dots, quantum wires, mesoscopic transport, and surface/interface physics.
• Semiconductor physics, optical properties, lattice dynamics, and phonon-mediated interactions.

Method & evidence bar

• PRB is archival: the bar is rigorous correctness and a substantive contribution to condensed-matter or materials physics, not cross-subfield broad importance or urgency.
• Experimental papers require full characterization: sample quality documentation, measurement uncertainty analysis, control experiments, and reproducibility checks appropriate to the measurement type.
• Theoretical and computational papers must specify the Hamiltonian, approximations, convergence criteria, and the regime of validity; results presented without complete methodological transparency are returned.
• First-principles calculations must state functional choices (XC functional, U parameters, van der Waals correction, k-point and basis-set convergence) explicitly; numerical precision must be reported.
• For topological classification or symmetry-based results, the space group, symmetry indicators, and computational tools should be documented.
• Data and code availability expectations are evolving; re-check current APS policies for computational datasets and DFT/DMFT/ED code deposition.

Structure & house style

• PRB publishes both Letters (short, urgent results in condensed-matter or materials physics requiring rapid communication within the community) and full Articles; the author chooses based on the nature of the result.
• Introductions in PRB are written for the condensed-matter and materials physics community and may assume subfield familiarity; cross-subfield framing is not required.
• Supplemental Material carries extended derivations, additional datasets, and computational details; the main text should present the key results and physics.
• Figures must clearly present spectra, band structures, phase diagrams, or transport data with complete axis labeling, units, and error bars; community standards for condensed-matter data presentation are well established.
• Reference coverage within the condensed-matter literature must be thorough; PRB reviewers will flag missing seminal or closely related work.

Official-submission checklist

• Before giving submission-ready advice, read ../../resources/source-basis.md and ../../resources/official-source-map.md; start from the official source anchors for this journal family, then cite the current journal-specific page you checked.
• Search the live site for "Physical Review B author guidelines" and follow the current APS version.
• Confirm article type (Letter vs. Article) and any format differences between the two.
• Re-check APS data and code availability requirements; computational condensed-matter papers increasingly require code and input files.
• Re-check the preprint policy; arXiv posting is the norm for this community (cond-mat, supr-con, mtrl-sci sections) and APS generally supports it.
• Confirm figure and table formatting requirements and SI units conventions.
• If the live official instructions conflict with this skill, the official instructions win.

Pre-submission self-check

• The result is a substantive, rigorous contribution to condensed matter or materials physics — correct, complete, and clearly situated in the existing PRB literature.
• All computational parameters (functional, convergence, k-mesh, U values) or experimental conditions (sample synthesis, measurement geometry, temperature range) are fully stated.
• The article type (Letter vs. Article) is appropriate; PRB Letters require urgency and a result deserving rapid community attention.
• Supplemental Material and any code/data deposition are prepared.
• arXiv posting is coordinated with co-authors.

Common desk-reject triggers

• A condensed-matter result submitted to PRB as a Letter that lacks the urgency or compactness for Letter format; editors redirect to Article or request resubmission.
• Computational papers where key DFT parameters (functional, U, k-points) are omitted or where convergence is not demonstrated.
• Experimental papers claiming a new phase or topological property without the spectroscopic, thermodynamic, or transport evidence required to support the claim in the condensed-matter community.
• Results that are purely phenomenological curve-fitting without microscopic model or mechanism.
• Manuscripts that are outside PRB scope (particle physics → physical-review-d; photonics-dominant result → nature-photonics or physical-review-letters).

Re-routing decision

If the result is Letter-quality with cross-subfield significance → physical-review-letters. For a cross-subfield, high-impact result needing fuller treatment → physical-review-x. For a conceptual materials advance with a strong structure-property narrative for a broad audience → nature-materials. For a broad physics narrative that non-specialists can follow → nature-physics. Quantum-information-focused condensed-matter results (e.g., topological qubits, many-body localization as a resource) may fit prx-quantum.

Output format

[Fit] High / Medium / Low (one-line reason)
[Target] Physical Review B
[Topic tags] <2–3 closest topics>
[Method/evidence] <is the result a rigorous, complete contribution to condensed matter or materials physics?>
[Top risk] <the single most likely reason for rejection>
[Official items to re-check] <article type / computational parameters / data/code sharing / arXiv policy>
[Re-route suggestion] <if not a fit, a better-matched venue>