Journal Guides3 min readUpdated Mar 27, 2026

Advanced Energy Materials Acceptance Rate

Advanced Energy Materials's acceptance rate in context, including how selective the journal really is and what the number leaves out.

By Senior Researcher, Chemistry
Author contextSenior Researcher, Chemistry. Experience with JACS, Angewandte Chemie, ACS Nano.View profile

Journal evaluation

Want the full picture on Advanced Energy Materials?

See scope, selectivity, submission context, and what editors actually want before you decide whether Advanced Energy Materials is realistic.

Selectivity context

What Advanced Energy Materials's acceptance rate means for your manuscript

Acceptance rate is one signal. Desk rejection rate, scope fit, and editorial speed shape the realistic path more than the headline number.

Full journal profile
Acceptance rate~15-25%Overall selectivity
Impact factor26.0Clarivate JCR
Time to decision~100-140 days medianFirst decision

What the number tells you

  • Advanced Energy Materials accepts roughly ~15-25% of submissions, but desk rejection accounts for a disproportionate share of early returns.
  • Scope misfit drives most desk rejections, not weak methodology.
  • Papers that reach peer review face a higher bar: novelty and fit with editorial identity.

What the number does not tell you

  • Whether your specific paper type (review, letter, brief communication) faces the same rate as full articles.
  • How fast you will hear back — check time to first decision separately.
  • What open access publishing will cost if you choose that route.

Quick answer: there is no strong official Advanced Energy Materials acceptance-rate number you should treat as exact. The better submission question is whether your paper pairs novel materials science with real energy-device performance and a clear mechanism.

If your manuscript is strong materials characterization without device data, the unofficial percentage is not the real issue. The fit is.

How Advanced Energy Materials' Acceptance Rate Compares

Journal
Acceptance Rate
IF (2024)
Review Model
Advanced Energy Materials
~15-20%
26.0
Novelty
Advanced Materials
~15%
26.8
Novelty
Journal of Materials Chemistry A
~25-30%
9.5
Soundness
Energy & Environmental Science
~10-15%
30.8
Novelty
ACS Energy Letters
~15-20%
18.2
Novelty

What you can say honestly about the acceptance rate

Wiley does not publish a stable official Advanced Energy Materials acceptance-rate figure that is strong enough to use as a precise planning number.

What is stable is the editorial posture:

  • The journal sits between Advanced Materials (broader, higher IF) and Journal of Materials Chemistry A (broader energy materials, lower IF)
  • Editors expect both outstanding materials science and convincing device-level performance
  • Desk rejection rates are high, likely above 40%, filtering papers that lack device data early
  • The Wiley cascade transfer system means many published papers started at Advanced Materials first

That is the planning surface authors should actually use.

What the journal is really screening for

Advanced Energy Materials is usually asking:

  • Does this paper present a genuine materials innovation tied to an energy technology?
  • Is there device-level validation under standardized conditions, not just powder characterization?
  • Does the paper explain the mechanism behind the performance, not just report numbers?
  • Would this advance the state of the art in batteries, solar cells, fuel cells, supercapacitors, or hydrogen technologies?

Those are the questions that matter more than a rumored percentage.

The better decision question

For Advanced Energy Materials, the useful question is:

Does the paper combine a new material with real device performance data and a mechanistic explanation for why it works?

If yes, the journal is plausible. If no, the acceptance-rate discussion is mostly noise.

Where authors usually get this wrong

The common misses are:

  • Submitting beautiful materials characterization with no device data, which triggers desk rejection
  • Reporting incremental device improvements without new mechanistic insight
  • Tacking an energy angle onto a paper that is really about materials synthesis
  • Presenting half-cell battery data and hoping the editor overlooks the missing full-cell results

Those are fit problems before they are rate problems.

What to use instead of a guessed percentage

If you are deciding whether to submit, these pages are more useful than an unofficial rate:

Together, they tell you whether the paper is really device-ready for an Advanced Energy Materials submission.

Submit if / Think twice if

Submit if:

  • the paper pairs novel materials science with real energy-device performance data: efficiency, cycling stability, or power density metrics in a working device
  • the advance is mechanistically explained: why does this material structure produce better energy performance?
  • the results are validated at device level, not just at electrode or half-cell level
  • the finding is relevant to a broad energy research readership: battery, solar, hydrogen, or fuel cell researchers beyond one specific system

Think twice if:

  • the paper is strong materials characterization without device-level performance data
  • the energy application is secondary to a materials science advance that Advanced Materials would better serve
  • the performance data is half-cell only without demonstration in a full device configuration
  • the advance is incremental: 5% efficiency improvement without mechanistic understanding of why

What Pre-Submission Reviews Reveal About Advanced Energy Materials Submissions

In our pre-submission review work evaluating manuscripts targeting Advanced Energy Materials, three patterns generate the most consistent desk rejections. Each reflects the journal's documented requirement that accepted papers advance both materials science and energy device performance.

Materials papers without energy device validation. Advanced Energy Materials author guidelines specify that the journal publishes work "combining fundamental materials science and new device concepts for energy conversion and storage." The failure pattern is a high-quality materials paper where the energy application is described but not demonstrated. A new anode material with excellent electrochemical characterization at the electrode level but no full-cell demonstration, a new perovskite absorber with impressive thin-film optical properties but no solar cell efficiency data, or a new electrolyte with good ionic conductivity but no battery cycling demonstration fails the device-level standard. The journal's editorial position is that "potential for application" is not sufficient; the application needs to be shown. Papers in this pattern are redirected to Advanced Materials or ACS Applied Materials & Interfaces.

Strong device performance without mechanistic explanation. The inverse failure is device results without materials insight. A solar cell that achieves record efficiency in a new architecture without explaining which structural or compositional feature is responsible for the improvement, or a battery material with 5,000-cycle stability without characterizing the surface chemistry or structural changes that enable it, lacks the fundamental understanding component that Advanced Energy Materials requires. The editorial standard is "combined expertise in materials science and device engineering." Papers that demonstrate only device engineering without materials science insight are directed to Applied Physics Letters, ACS Energy Letters, or device-focused energy journals. The mechanistic story and the device story need to coexist in the paper.

Incremental performance in a well-studied system. Advanced Energy Materials expects that the submitted work represents a meaningful advance relative to the current state of the field. A paper reporting a 5% PCE improvement in a well-studied perovskite system, a 10% capacity increase in a conventional lithium-ion anode, or a marginal conductivity improvement in a known solid electrolyte using conventional synthesis belongs in a specialist or society journal, not a flagship energy materials journal. The advance needs to be significant enough that energy researchers across different conversion and storage technologies would read the paper to inform their own work. If the result is primarily of interest to specialists in one very specific system, the scope is too narrow for Advanced Energy Materials. An Advanced Energy Materials device-readiness check can assess whether the device performance and mechanistic evidence package positions the paper appropriately before submission.

Readiness check

See how your manuscript scores against Advanced Energy Materials before you submit.

Run the scan with Advanced Energy Materials as your target journal. Get a fit signal alongside the IF context.

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Practical verdict

The honest answer to "what is the Advanced Energy Materials acceptance rate?" is that there is no strong official number you should treat as exact.

The useful answer is:

  • yes, the journal is a real top-tier energy materials venue with IF 26.0
  • no, a guessed percentage is not the right planning tool
  • use device-level data, mechanistic depth, and the Wiley cascade system as your filters instead

If you want help pressure-testing whether this manuscript is device-ready for an Advanced Energy Materials submission before upload, an Advanced Energy Materials device-readiness and acceptance-odds check is the best next step.

What the acceptance rate means in practice

The acceptance rate at Advanced Energy Materials is only one dimension of selectivity. What matters more is where in the process papers are filtered. Most rejections at selective journals happen at the desk - the editor reads the abstract, cover letter, and first few paragraphs and decides whether to send the paper for external review. Papers that make it past the desk have substantially better odds.

For authors, this means the real question is not "what percentage of papers get accepted?" but "will my paper survive the desk screen?" The desk screen is about scope fit, novelty signal, and evidence maturity - not about statistical odds.

How to strengthen your submission

If you are considering Advanced Energy Materials, these specific steps improve your chances:

  • Lead with the advance, not the method. The first paragraph of your abstract should state what changed in the field, not how you ran the experiment.
  • Match the journal's scope precisely. Read the last 3 issues. If your paper's topic doesn't appear, the desk rejection risk is high.
  • Include a cover letter that addresses fit. Name the specific reason this paper belongs at Advanced Energy Materials rather than a competitor.
  • Ensure the data package is complete. Missing controls, weak statistics, or incomplete characterization are common desk-rejection triggers.
  • Check formatting requirements. Trivial formatting errors signal carelessness to editors.

Realistic timeline

For Advanced Energy Materials, authors should expect:

Stage
Typical Duration
Desk decision
1-3 weeks
First reviewer reports
4-8 weeks
Author revision
2-6 weeks
Second review (if needed)
2-4 weeks
Total to acceptance
3-8 months

These are approximate ranges. Actual timelines vary by manuscript complexity, reviewer availability, and whether revisions are needed.

What the acceptance rate does not tell you

The acceptance rate for Advanced Energy Materials does not distinguish between desk rejections and post-review rejections. A paper desk-rejected in 2 weeks and a paper rejected after 4 months of review both count the same. The rate also does not reveal how acceptance varies by article type, geographic origin, or research area within the journal's scope.

Acceptance rates cannot predict your individual odds. A strong paper with clear scope fit, complete data, and solid methodology has substantially better odds than the headline number suggests. A weak paper with methodology gaps will be rejected regardless of the journal's overall rate.

Before submitting, an Advanced Energy Materials mechanistic evidence and device performance check assesses desk-reject risk for your specific manuscript against this journal's editorial bar.

Before you submit

A Advanced Energy Materials mechanistic evidence and device performance check identifies the specific framing and scope issues that trigger desk rejection before you submit.

Frequently asked questions

No. Wiley does not release an official acceptance rate for Advanced Energy Materials. Community estimates cluster around 15-20%, but the journal has not confirmed this figure and it should not be treated as precise.

Device-level validation paired with mechanistic insight. The editors screen for papers where the materials science and the energy application are both outstanding, not just one or the other.

Advanced Materials covers all materials science disciplines broadly. Advanced Energy Materials narrows the lens to energy-related materials and requires convincing device-level or application-level performance data alongside the materials innovation.

When the paper is primarily materials characterization without device data, when the energy angle is secondary, or when the performance improvement is incremental with no new mechanistic understanding.

Use the journal's editorial posture: does the paper combine novel materials with real energy-device performance and mechanistic depth? That question filters better than any unofficial number.

References

Sources

  1. 1. Wiley: Advanced Energy Materials author guidelines
  2. 2. Advanced Energy Materials aims and scope
  3. 3. Clarivate Journal Citation Reports 2024
  4. 4. SCImago Journal & Country Rank: AEnM

Before you upload

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Scope, selectivity, what editors want, common rejection reasons, and submission context, all in one place.

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