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Physical Review B Impact Factor 3.7: Publishing Guide

Condensed matter physics from electrons to materials - fundamental discoveries and technological applications.

3.7

Impact Factor (2024)

~35%

Acceptance Rate

~60 days to first decision

Time to First Decision

What Physical Review B Publishes

Physical Review B is the American Physical Society's flagship journal for condensed matter physics. It covers electronic structure, magnetic properties, superconductivity, semiconductors, nanomaterials, and all phenomena arising from interactions in condensed systems. The journal accepts both fundamental theoretical work and experimental studies of material properties.

  • Electronic structure and band theory
  • Magnetic properties and magnetic materials
  • Superconductivity and quantum phenomena
  • Semiconductors and electronic devices
  • Optical and transport properties
  • Nanoscale physics and quantum dots
  • Strongly correlated systems and exotic states

Editor Insight

Physical Review B publishes condensed matter physics that contributes to our understanding of materials and phenomena. Your research doesn't need to be revolutionary - it needs to be rigorous and add knowledge. Whether you're computing electronic structure, measuring material properties, or predicting novel phenomena, show me you understand the physics deeply. What's the physical mechanism? Why does this material behave this way? If you can answer those questions clearly, your work belongs in PRB.

What Physical Review B Editors Look For

Rigorous theoretical or experimental treatment

PRB accepts diverse approaches - ab initio calculations, experimental measurements, theoretical models. But all must be rigorous. Sloppy theory or experiments don't meet standards.

Clear physical insight, not just numbers

PRB readers want understanding. Whether you compute band structures or measure transport properties, explain what it means physically. Why does this material behave this way?

Appropriate methodology for the problem

Use the right tool. Density functional theory for some problems, Monte Carlo for others, experiments for others. Justify your approach.

Comprehensive treatment of the phenomenon

Study your system thoroughly - temperature dependence, field dependence, pressure effects. Partial studies of complex phenomena are less compelling.

Connection to condensed matter physics principles

Ground your work in established condensed matter theory. Even novel phenomena should be understandable within the framework of condensed matter physics.

Honest discussion of limitations

Theory is approximate; experiments have uncertainty. Acknowledge these limitations. Papers that carefully consider what they can and can't claim are stronger.

Why Papers Get Rejected

These patterns appear repeatedly in manuscripts that don't make it past Physical Review B's editorial review:

Isolated experimental measurements without physical context

Measuring some property isn't interesting by itself. Connect it to condensed matter physics - how does it relate to electronic structure? Magnetic interactions? Quantum phenomena?

Computational work without experimental validation

Theory needs grounding. Predictions that aren't validated experimentally are speculative. Theory + experiment together is much stronger.

Inadequate computational methodology

If using DFT, specify functional, basis set, convergence criteria. If using other methods, justify choices. Vague computational methods get rejected.

Incomplete characterization of materials

For experimental condensed matter, you need full characterization - structure, chemistry, purity. Poorly characterized samples raise questions about results.

Results that don't advance condensed matter physics understanding

PRB wants contributions to the field. Measurements of obscure properties with no broader implications are less interesting.

Poor connection to existing condensed matter knowledge

Place your work in context. How does it relate to known phenomena? What does it tell us that we didn't know?

Does your manuscript avoid these patterns?

The quick diagnostic reads your full manuscript against Physical Review B's criteria and flags the specific issues most likely to cause rejection.

Run Free Readiness Scan →

Insider Tips from Physical Review B Authors

PRB has reasonable acceptance rate for good work

With ~35% acceptance rate, PRB is more accessible than high-impact journals. Solid condensed matter research gets published.

Theory and experiment combinations are strongest

Papers combining theoretical predictions with experimental verification are highly competitive. They tell complete stories.

Novel materials often get good reception

New materials with interesting electronic, magnetic, or quantum properties attract attention. Detailed characterization of properties is key.

Temperature and field dependence strengthen studies

Showing how properties vary with temperature, magnetic field, or pressure reveals underlying physics. Thorough variable studies are valued.

Preprints on arXiv are standard

Physics community routinely posts preprints. This doesn't affect PRB novelty assessment and gets your work visible immediately.

High-quality figures are appreciated

Complex band structures, phase diagrams, or property plots must be clear and well-explained. Invest in figure quality.

Computational efficiency and scalability matter

If you've developed a computational method, show it's efficient and scales to larger systems. Practical algorithms are valued.

Emerging phenomena get attention

Discovery of novel phases, unexpected property behaviors, or exotic quantum states are particularly competitive.

The Physical Review B Submission Process

1

Complete theoretical or experimental investigation

Research phase - months typically

For theory: finish all computations, test against known results, analyze physical implications. For experiments: fully characterize materials and properties, gather data across ranges of parameters.

2

Submit via APS online system

Submission step

Use Physical Review Online Manuscript Submission system. Provide abstract emphasizing physical significance. Suggest 4-5 expert reviewers in your condensed matter specialty.

3

Editorial triage

3-5 days

Editors assess scope and quality. PRB is inclusive of condensed matter physics topics. Most in-scope papers pass to peer review. Desk rejections rare.

4

Peer review

40-60 days typical

2 expert physicists review. They assess rigor (computational or experimental), physical significance, clarity, and novelty. PRB reviewers are usually knowledgeable and fair.

5

Revision or acceptance

Editor decision within 1 week of final reviews

Decision options: accept, minor revisions, major revisions, or reject. Revision requests are usually reasonable. Revised papers may return to reviewers if major changes requested.

6

Publication

2-3 weeks to online publication

Accepted papers enter production quickly. Online publication typically within 2-3 weeks. Assigned to specific volume and issue.

Physical Review B by the Numbers

2024 Impact Factor(Clarivate JCR 2024)3.7
5-Year Impact Factor3.9
CiteScore (Scopus)7.1
Submissions per year~5,000
Overall acceptance rate~35%
Desk rejection rate~10-15%
Post-review acceptance~50-60% of reviewed manuscripts
Median first decision~60 days
Median acceptance to publication~90-120 days total
Founded(American Physical Society)1970
Publication frequencyMultiple issues per month
ISSN1098-0121

Before you submit

Physical Review B accepts a small fraction of submissions. Make your attempt count.

The pre-submission diagnostic runs a live literature search, scores your manuscript section by section, and gives you a prioritized fix list calibrated to Physical Review B. ~30 minutes.

Article Types

Regular Article

~4,000-8,000 words

Full condensed matter physics research with complete results and interpretation. Typically 4,000-8,000 words with figures and equations integrated.

Rapid Communication

~3,000-3,500 words

Faster track for time-sensitive condensed matter discoveries. Emphasis on significance and novelty. Shorter format with expedited review.

Comment or Reply

~1,000-1,500 words

Critical comments on recent PRB papers or author replies. Used for technical corrections or clarifications.

Landmark Physical Review B Papers

Papers that defined fields and changed science:

  • Graphene discovery and electronic properties - revolutionizing 2D materials physics
  • High-temperature superconductor mechanisms - advancing understanding of superconductivity
  • Topological materials and quantum states - opening new condensed matter phenomena
  • Strongly correlated electron systems revealing exotic properties
  • Computational studies of materials predicting properties before synthesis

Preparing a Physical Review B Submission?

Get pre-submission feedback from reviewers who've published in Physical Review B and know exactly what editors look for.

Run Free Readiness Scan

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Primary Fields

Electronic Structure and SemiconductorsMagnetism and Magnetic MaterialsSuperconductivityQuantum SystemsNanoscale PhysicsOptical and Transport PropertiesStrongly Correlated Systems