Is ACS Catalysis a Good Journal? What Catalysis Researchers Need to Know

ACS Catalysis editors ask a specific question during desk review: does this paper advance the mechanistic understanding of catalysis, or does it just report catalytic performance?

The distinction kills more submissions than any other factor. A paper showing a new catalyst with excellent TOF and selectivity might be technically impressive, but if the paper does not explain why the catalyst works at the molecular level, it reads as a materials paper with a catalysis application, not a catalysis paper with mechanistic insight. Editors route those papers to ACS Applied Catalysis B or Chemistry of Materials.

The most common desk rejection pattern: "We tried catalysts A, B, C, and D under conditions X, Y, and Z, and D gave the best results." That is screening, not science. ACS Catalysis wants to know what makes D work: the active site structure, the rate-determining step, the electronic or steric factors that control selectivity.

In our pre-submission review work with manuscripts targeting ACS Catalysis, three patterns generate the most consistent desk rejections. None of them are about the quality of the catalysis. All three are about how the manuscript is prepared.

Missing required characterization. The journal's author guidelines explicitly require BET surface area measurements, powder XRD patterns, and electron microscopy images for heterogeneous catalysis papers. Missing any one of these results in desk rejection. Supporting Information must include BET isotherms (not just surface area values), indexed XRD patterns, and high-resolution electron microscopy with particle size distributions. Scale bars and Miller indices are required. We see this rejection pattern on manuscripts from researchers who are thorough scientists but did not read the characterization requirements closely before submitting.

Titles and abstracts with "New," "Novel," or "First." ACS Catalysis explicitly bans these words in titles and abstracts, along with superlatives like "Superb" or "Excellent." This is a formatting-level block that returns manuscripts immediately. It is unusually specific for a journal of this standing, and it surprises authors who have used this language at other journals without issue.

TOF not reported under kinetically controlled conditions. The guidelines state that activity claims require "catalytic performance with rates such as turnover frequencies (TOFs) under kinetically controlled conditions." Papers that report yield and conversion without proper TOF benchmarking against existing catalysts are flagged consistently. This is especially sharp in heterogeneous catalysis where benchmark inflation is common.

Beyond desk rejections, the reviewers at ACS Catalysis ask for additional spectroscopic evidence for mechanistic proposals (in situ ATR-SEIRAS, EPR, and operando XRD appear regularly in revision requests), broader substrate testing beyond the initial scope, and control experiments that eliminate alternative explanations for observed activity.

An ACS Catalysis scope check can identify the spectroscopic gaps, substrate scope issues, and missing controls before the paper reaches an editor, since these patterns are concrete enough to flag from the manuscript itself.

Reviewer suggestions: Minimum 4 scientists required, each from a different country. No former mentors or mentees, no collaborators or coauthors from the past 5 years. Academic email addresses preferred.

Revision deadlines: For Letters, minor revisions are due in 10 days, major in 21 days, reject-and-resubmit in 60 days. For Articles, minor revisions are due in 14 days, major in 28 days, reject-and-resubmit in 90 days. These are hard deadlines.

Required sections: Articles must include a separate Methods section in the main text (not Supporting Information only). Letters keep full Methods in Supporting Information.

Cover letter must include: A paragraph explaining why the manuscript is appropriate for ACS Catalysis with key advances stated explicitly. If previously rejected elsewhere, include the manuscript number and a detailed response to each prior reviewer comment.

Table of Contents graphic: Required. Exact dimensions: 3.33 in. wide x 1.87 in. tall.

ACS Catalysis covers all catalysis types, but the evidence standards differ by sub-field. Knowing what reviewers specifically ask for in your area prevents revision requests that could have been avoided.

Electrocatalysis and CO2 reduction. The 2017 editorial "Best Practices in Pursuit of Topics in Heterogeneous Electrocatalysis" is still actively cited by reviewers as an implicit checklist. Key requirements: proper double-layer correction, iR compensation, and Tafel analysis for any activity claim. Single-atom catalysts for CO2-to-CO, CO2-to-methane, and CO2-to-C2+ products are the highest-output area right now. DFT or quantum mechanical calculations paired with experimental validation is the expected evidence package for any mechanistic claim in this space.

Water splitting (HER/OER). TOF per active site is the expected metric, not just overpotential at a fixed current density. Reviewers routinely ask for stability testing beyond 24 hours and operando characterization to confirm the active phase under reaction conditions.

Enzymatic and biocatalysis. This sub-field has a dedicated associate editor (Huimin Zhao, UIUC). Enzyme engineering papers need to demonstrate catalytic improvement through a mechanistic lens, not just directed evolution screening results without structural or kinetic insight. A 2020 editorial in ACS Catalysis specifically addressed what biocatalysis papers should include.

Photocatalysis. The journal published a 2016 editorial addressing photocatalysis scope. Papers must show catalytic turnover, not just photochemical reactivity. Quantum yield measurements and control experiments ruling out stoichiometric processes are standard reviewer requests.

Machine learning for catalyst design. ML-guided screening and prediction papers have become a distinct category in 2024-2025 publications. The expectation is that ML models are validated experimentally, not just computationally.