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Advanced Materials Impact Factor 26.8: Publishing Guide

High-impact materials research spanning chemistry, physics, and engineering.

26.8

Impact Factor (2024)

~6%

Acceptance Rate

~40 days to first decision

Time to First Decision

What Advanced Materials Publishes

Advanced Materials is a high-impact materials science journal publishing research on functional materials with novel or substantially improved properties. The journal covers synthesis, characterization, and applications of materials ranging from polymers to ceramics to nanostructures. The emphasis is on materials that enable new technologies or significantly improve performance.

  • Functional materials with novel electrical, optical, magnetic, or mechanical properties
  • Nanoscale materials and nanostructures with size-dependent properties
  • Polymers and polymer composites with enhanced performance
  • Ceramics and glasses with advanced properties
  • Biomaterials and biocompatible materials
  • Energy-related materials for batteries, catalysis, or solar applications
  • Materials demonstrating practical utility or enabling new technologies

Editor Insight

We get thousands of papers about materials with good properties. Maybe they're 20% stronger, or have a novel shape, or combine two known approaches in a new way. That's not Advanced Materials. We publish materials that are transformative - they enable something that wasn't possible before, or they completely outperform everything else. Ask yourself: would a researcher choose my material over existing options? Why? If the answer is price alone or a modest performance improvement, submit elsewhere. If it's a breakthrough in function, or properties never before achieved, that's what we want.

What Advanced Materials Editors Look For

Genuinely novel materials or synthesis routes

Advanced Materials expects discoveries that are new and significant. Incremental improvements to known materials or standard synthesis routes don't meet the bar. Show why this material is different.

Comprehensive characterization of properties

You need to thoroughly characterize your material - structure, morphology, mechanical/thermal/electronic properties as relevant. Partial characterization suggests incomplete work.

Demonstration of practical utility or applications

Show how your material could be used. Device performance, prototype demonstration, or at minimum theoretical modeling of applications. Lab curiosities aren't compelling.

Mechanistic understanding of property origin

Don't just report that your material has good properties. Explain why - how does structure correlate with function? What's the mechanism?

Scalability and synthetic feasibility

Can your synthesis scale up? Are conditions reasonable? Can it be reproduced reliably? Materials that only work under exotic conditions have limited practical value.

Proper comparison to existing materials

How does your material compare to the current state-of-the-art? Show clear advantages in key properties - strength, conductivity, thermal stability, cost.

Why Papers Get Rejected

These patterns appear repeatedly in manuscripts that don't make it past Advanced Materials's editorial review:

Routine synthesis or incremental property improvements

If you're using standard synthesis methods and getting 10% better properties than existing materials, that's not Advanced Materials level. You need a novel approach or transformative property leap.

Incomplete characterization

Materials papers need thorough characterization. Missing key property measurements (especially if you claim novel function) gets papers rejected.

No demonstration of actual utility

Showing a material has interesting properties in isolation isn't enough. Show it in an application - device performance, computational modeling of use, or at least proof of principle.

Synthesis so complex it's impractical

If your synthesis requires multiple weeks, extreme conditions, or exotic precursors, reviewers question practical applicability. Scalability matters.

Weak mechanistic understanding

Papers that just report 'we made this and it has these properties' without explaining why are less compelling. Mechanistic insights strengthen papers significantly.

Poor comparison to literature materials

You must compare your material to the best existing alternatives. If you avoid this comparison, reviewers suspect you're hiding the fact that it's not actually better.

Does your manuscript avoid these patterns?

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

Run Free Readiness Scan →

Insider Tips from Advanced Materials Authors

Advanced Materials has extremely high standards

With 26.8 IF and ~6% acceptance rate, this is more selective than Nature or Science for materials. Your work needs to be transformative, not just good.

Device demonstrations significantly strengthen papers

If you can show your material in a working device - solar cell, LED, sensor, battery - acceptance probability increases substantially.

Scalability and practical synthesis matter greatly

Materials that can only be made in milligram quantities with complex procedures are less interesting. Show path to practical scale-up.

Computational studies complement experimental work

DFT calculations, molecular dynamics, or other modeling supporting your property claims strengthens the submission.

Cover art quality helps visibility

If accepted, high-quality figures and graphics can become cover art, increasing journal visibility. Invest in visualization quality.

Supporting information should be comprehensive

All characterization data should be included - spectroscopy, diffraction, thermal analysis, mechanical testing. Nothing hidden in SI.

Sustainability angle increasingly valued

Materials from sustainable sources, with low toxicity, or enabling green technologies get favorable consideration.

Interdisciplinary materials are competitive

Materials bridging fields - organic-inorganic hybrids, bio-inspired materials, materials for emerging technologies - are highly competitive.

The Advanced Materials Submission Process

1

Comprehensive material synthesis and characterization

Experimental phase - months of work typically

Prepare detailed synthesis protocols with all parameters. Characterize structure (XRD, microscopy), morphology (SEM, TEM), and all relevant properties (mechanical, thermal, electrical, optical). Include reproducibility data and multiple synthetic batches.

2

Application demonstration or modeling

Additional experimental/computational phase

Show your material working in an application - as a device component, in a composite, in a coating. Or provide strong theoretical modeling of how it would perform in applications.

3

Submit via Wiley's online system

Submission step

Use the Advanced Materials submission portal. Clearly articulate novelty - what's new about your material and why it matters. Suggest 4-5 expert reviewers in your materials specialty.

4

Stringent editorial screening

5-10 days

Editors do thorough evaluation of novelty and impact. Only papers meeting the highest standards pass to peer review. Desk rejection rate is very high (~60-70%) for papers that are good but not exceptional.

5

Expert peer review

30-40 days

2-3 world-leading experts in your materials area. They assess novelty, property superiority, mechanistic understanding, and practical potential. Reviews are detailed and exacting.

6

Acceptance or rejection

2-5 days after reviews

Decisions are binary - accept or reject. Major revisions rare. If accepted, fast-tracked to publication with high visibility.

Advanced Materials by the Numbers

2024 Impact Factor(Clarivate JCR 2024 - 2nd highest in materials)26.8
5-Year Impact Factor28.2
CiteScore (Scopus)51.9
Submissions per year~6,000
Overall acceptance rate~6%
Desk rejection rate~60-70%
Post-review acceptance~15-20% of reviewed manuscripts
Median first decision~40 days
Median acceptance to publication~60-90 days total
Founded(Wiley; premier materials journal)1991
Publication frequencyWeekly
ISSN0935-9648

Before you submit

Advanced Materials 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 Advanced Materials. ~30 minutes.

Article Types

Full Article

~8,000-12,000 words

Complete materials research with synthesis, characterization, property evaluation, and applications. No strict word limit but typically 8,000-12,000 words including figures.

Communication

~3,500-4,000 words

Brief high-impact reports of exceptional materials discoveries. Shorter format with emphasis on novelty and significance. Faster review and publication.

Landmark Advanced Materials Papers

Papers that defined fields and changed science:

  • Perovskite solar cells achieving record efficiencies - transforming photovoltaic technology
  • Graphene and 2D materials with exceptional properties - enabling novel device applications
  • Shape-memory polymers with programmable properties - new class of functional materials
  • Superhydrophobic surfaces inspired by lotus leaves - biomimetic materials with practical applications
  • MOF-based materials for gas storage and separation - porous materials with transformative potential

Preparing a Advanced Materials Submission?

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

Run Free Readiness Scan

Need expert depth? Human review from $1,000

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Primary Fields

Polymer Science and EngineeringInorganic and Composite MaterialsNanotechnologyEnergy Materials (batteries, solar, catalysts)BiomaterialsElectronic and Optical MaterialsMechanical and Structural Materials