Inorganic Chemistry (ACS) Submission Guide: Portal, CCDC Gate & Editors

Submissions start from the journal-specific ACS author instructions and then route into the ACS upload workflow:

Inorganic Chemistry author guidelines

The journal-specific instructions are the correct starting point because they define the article types, required files, and chemistry-specific checks before upload.

All article types route through the ACS submission system. The portal performs technical checks before the editor sees the submission, including the CCDC pre-deposition check described below.

This is the single most avoidable Inorganic Chemistry rejection and the one that hits even strong submissions:

Manuscripts reporting new crystal structures must deposit the CIF file at CCDC and obtain a deposition number BEFORE submission. The ACS technical check can return submissions reporting new structures without a CCDC number; this is a portal-level gate, not an editorial decision, and the return can arrive within hours rather than days.

The workflow:

1. Deposit the CIF at CCDC deposition portal

1. Run CheckCIF and address any A or B alerts

1. Capture the CCDC deposition number

1. Include the number in the manuscript Experimental Section and in the ACS submission form

1. Only then submit through the ACS upload workflow

Manuscripts where the new structure is a Supporting Information addition rather than a manuscript focus still trigger the gate. The check is automated and absolute.

Inorganic Chemistry publishes four article types with different length expectations:

• Article: complete study; ACS does not set a formal word limit, but authors are urged to be concise

• Communication: 2,200 words or less, including abstract, main text, figure captions, and TOC graphic (time-sensitive significance required, not just brevity)

• Viewpoint Article: typically invited; proposals are welcome

• Review: invited by the Editor-in-Chief; proposals are welcome, with a flexible upper limit of 10,000 words

Table of Contents graphic: 8.25 cm × 4.45 cm maximum. All authors require ORCID iDs at proof stage.

Source: ACS Inorganic Chemistry Author Guidelines.

Inorganic Chemistry's ~33-day median first decision is fast for an ACS chemistry journal because the desk-screen filters aggressively on the inorganic-emphasis question.

Day 1 to 3: Initial QC and portal technical check

The ACS system runs automated checks: file types, CCDC deposition number for new structures, TOC graphic format, ORCID for all authors, declaration completeness. Failures return the submission to the author within hours, not days.

Day 3 to 10: Editor desk screen

The handling editor reads the manuscript abstract and significance statement for inorganic emphasis. Desk rejects at this stage arrive at the ~7-day median; the editor's decision is whether the inorganic contribution justifies sending to peer review.

Day 10 to 28: Peer-review assignment

Reviewers are invited; assignment typically takes 2 to 4 weeks. The ACS inorganic-chemistry reviewer pool overlaps with Dalton Transactions, Organometallics, and JACS, so reviewer turnaround is generally good.

Week 4 to 10: Peer review

Peer review window. Typically 2 to 3 reviewers per manuscript. First decision usually arrives at the ~33-day median (SciRev), with 2.1-month LetPub aggregate reflecting longer-tail cases.

Week 10 to 18: Revision rounds

Major revisions get 4 to 8 weeks of author time, then a second review cycle (2 to 4 weeks). Minor revisions typically clear in editorial review only.

Week 18 to 20: ASAP online publication

Accepted articles appear ASAP within 1 to 3 weeks of acceptance, with the citable DOI assigned at that point. Print issue assignment follows.

Source: SciRev community data for Inorganic Chemistry, LetPub Inorganic Chemistry profile, accessed May 2026.

Inorganic Chemistry editors screen on three operational signals beyond the technical CCDC gate:

1. Inorganic emphasis explicit. The abstract and significance statement must name the inorganic-chemistry contribution. Materials-science or applications work with thin inorganic framing routes to ACS Applied Materials & Interfaces or similar at desk.

1. Synthesis, characterization, and property/mechanism follow-up. Structure-only papers without property follow-up or mechanistic insight are common rejection patterns; ACS guidance specifically names "poorly characterized compounds" and "structure-only papers" as desk-reject patterns.

1. Novelty above incremental. Routine syntheses and incremental advances on well-known compound families are the most-named desk-reject category in ACS's "What Will Not Be Considered" guidance.

Recent issues span single-atom catalysis and metal-organic frameworks, lanthanide-based luminescence and magnetism, actinide chemistry and nuclear waste forms, bioinorganic and metallobiochemistry, organometallic catalysis, solid-state inorganic materials, computational inorganic chemistry, and coordination polymers and supramolecular chemistry.

For specific recent papers, see Inorganic Chemistry on ACS Publications.

This guide tells you what Inorganic Chemistry editors look for before reviewer assignment, and Manusights checks whether your paper passes the inorganic-protagonist, CCDC, Supporting Information, safety-language, and ACS routing tests that official ACS guidance cannot evaluate from a generic checklist. Paid Manusights reviews are covered by a 60-day money-back guarantee, and we never train on submitted manuscripts.

Across inorganic-chemistry manuscripts targeting Inorganic Chemistry, three patterns generate the most consistent readiness problems after the portal-level CCDC and file checks. The ACS instructions are detailed, but the editorial decision turns on whether the manuscript components prove an inorganic contribution in synthesis, structure, bonding, reactivity, spectroscopy, mechanism, safety, or functional property.

Routine synthesis package without a new inorganic-chemistry advance

For manuscripts targeting Inorganic Chemistry (where ACS explicitly discourages routine syntheses and incremental advances on known compound families), the most common failure mode is a complete synthesis and characterization package that does not state what changed for inorganic chemistry. The abstract names a new complex, material, cluster, framework, or ligand family. The figures show spectra, structures, electrochemistry, or magnetic data. The Supporting Information is large.

But the title, abstract, Figure 1, and cover letter do not identify a new bonding mode, coordination environment, reactivity pattern, redox behavior, photophysical property, catalytic mechanism, or structure-property relationship.

Editors specifically screen for whether the contribution is more than another member of a known family. The manuscript should make the inorganic advance visible before the reader reaches the discussion. If the claim is synthetic, the methods should show why the route enables something unavailable before. If the claim is structural, the figures should tie structure to bonding, electronics, magnetism, reactivity, or function.

If the claim is catalysis or energy photochemistry, the controls should separate inorganic mechanism from application performance. When the paper remains routine, better redirects include Dalton Transactions for broader inorganic scope tolerance, Organometallics for organometallic specialist work, Crystal Growth & Design for structure-centered work, ACS Applied Materials & Interfaces for applications-led materials, or Inorganic Chemistry Frontiers for open-access inorganic chemistry with a different scope balance.

Check whether your inorganic advance is visible ->

Crystal-structure evidence is isolated from property or mechanism

For manuscripts targeting Inorganic Chemistry (where CCDC deposition, CIF files, CheckCIF reports, and Supporting Information are technical gates), a second pattern is a structure-forward manuscript whose strongest evidence never becomes a chemical argument. The CIF is deposited, the CheckCIF alerts are addressed, the ORTEP or crystal-packing figure is clean, and the Supporting Information is detailed, but the paper stops at structural description. The main text does not connect the structure to electronic structure, spectroscopy, thermodynamics, kinetics, magnetic behavior, luminescence, catalytic reactivity, redox properties, or computational interpretation.

The fix is to make the structure a mechanism or property instrument rather than the whole contribution. The abstract should state what the structure explains. Figure 1 or Figure 2 should connect coordination geometry, ligand field, oxidation state, framework topology, or metal-metal interaction to a measurable property. The methods should include the experiment or calculation that tests that relationship, not only the crystallography workflow.

The Supporting Information should support the main claim with spectra, control compounds, computational details, additional structures, safety statements, and raw characterization, but the main figures should carry the argument. If the only publishable novelty is the structure itself, a crystal-structure or narrower specialist venue is more realistic.

Inorganic Chemistry works when the manuscript uses structural evidence to teach inorganic chemistry, not only to report a new compound.

Check whether your structure supports a mechanism ->

Application or materials performance overwhelms inorganic emphasis

For manuscripts targeting Inorganic Chemistry (where ACS says only submissions that sufficiently emphasize inorganic chemistry aspects will be considered), the third pattern is a materials, energy, catalysis, sensing, or biomedical application paper with inorganic language added at the surface. The abstract leads with performance, device metrics, sensing response, activity, efficiency, or biological effect. The figures optimize outcomes.

The cover letter names Inorganic Chemistry because the material contains a metal, coordination motif, cluster, or solid-state inorganic component, but the manuscript does not show why bonding, reactivity, electronic structure, coordination chemistry, or mechanism is the central contribution.

This is a routing problem more than a writing problem. To make Inorganic Chemistry credible, the manuscript components need to put inorganic insight first: spectroscopic assignment, ligand-field argument, redox cycle, structure-property relationship, mechanistic control, or computational validation. Performance data can remain, but it should support the inorganic chemistry claim rather than replace it.

If the paper is primarily about device performance, ACS Applied Materials & Interfaces, ACS Applied Energy Materials, Journal of Materials Chemistry A, or Advanced Functional Materials may be cleaner. If it is primarily broad chemistry significance, JACS may be appropriate. If it is organometallic reaction development, Organometallics may fit better.

Inorganic Chemistry is strongest when the reader could remove the application paragraph and still see a substantial inorganic chemistry contribution in the figures, methods, references, and cover letter.

Check whether your ACS routing argument is clear ->

• Is Inorganic Chemistry a good journal?

• Inorganic Chemistry under review

• Dalton Transactions Submission Guide

• JACS Submission Guide

• Inorganic Chemistry Frontiers Submission Guide

We reviewed the Inorganic Chemistry page on ACS Publications, the ACS Inorganic Chemistry Author Guidelines, the ACS submission workflow, and aggregator timeline data from SciRev and LetPub. We also checked ACS editorial context around Inorganic Chemistry publication standards.

Source limitation: ACS and aggregator pages verify submission mechanics and timeline proxies, but they do not judge whether a draft makes inorganic chemistry the protagonist; the Manusights layer above applies our pre-submission review pattern to that manuscript-level fit question.

The CCDC gate and the desk-screen patterns described below match what the ACS guidelines state and what authors report through community channels.

Evidence boundary: ACS guidelines explain the portal, manuscript types, CCDC deposition, safety statements, and file requirements, but they do not tell authors whether the abstract, figures, structure files, Supporting Information, safety language, and cover letter already make the inorganic chemistry contribution strong enough.

In our pre-submission review work for Inorganic Chemistry submissions, the repeated failure pattern was a paper that technically belonged to chemistry but did not make inorganic chemistry the protagonist. In our review work we identify a failure pattern: the structure or application is present, but the abstract, figures, methods, Supporting Information, and cover letter do not prove the bonding, reactivity, spectroscopy, mechanism, or property advance.

Official guidance covers the ACS upload rules. Before submission, the harder decision is whether the manuscript makes bonding, structure, reactivity, spectroscopy, mechanism, or property evidence central enough before an ACS editor routes it elsewhere.

In our pre-submission review work, the strongest submissions made the inorganic protagonist visible across the abstract, Figure 1, crystallographic files, Supporting Information, safety language, TOC graphic, and cover letter. Official guidance explains the CCDC and ACS technical gates; the practical screen is whether the package uses structure, bonding, spectroscopy, reactivity, mechanism, or property evidence to teach inorganic chemistry rather than merely report a new compound or application.