Neurocomputing Submission Guide: How to Submit to Neurocomputing (Elsevier)
A package-readiness guide to Neurocomputing (Elsevier): the Editorial Manager portal, the neural-networks-and-learning-systems scope test, the editorial triage timeline, and the failure patterns that stall submissions before review.
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How to approach Neurocomputing
Use the submission guide like a working checklist. The goal is to make fit, package completeness, and cover-letter framing obvious before you open the portal.
Stage | What to check |
|---|---|
1. Scope | Confirm a learning-systems contribution versus a generic deep-learning application |
2. Package | Add ablations, analysis, and reproducibility artifacts |
3. Cover letter | Prepare declarations and code or data availability |
4. Final check | Build and proof the Editorial Manager PDF |
Quick answer: Neurocomputing submits through Elsevier's Editorial Manager portal at editorialmanager.com/neucom, and the decisive editorial filter is whether the work is a genuine neural-networks and learning-systems contribution rather than a generic deep-learning application. Community data puts the first review round near 1.7 months and total handling near 3.1 months, with gold open access at roughly $2,930 USD. The first thing an editor checks is the methodological contribution to learning systems, not portal mechanics.
A Neurocomputing submission guide is only useful if it tells you what the upload step cannot: this journal screens on the learning-systems contribution, not on whether your model trained. Neurocomputing publishes fundamental work on neural networks and learning systems, including architectures, learning methods, and the analysis of network dynamics. The fastest way to get returned is to send a paper whose real story is "we applied a standard model to a new dataset."
That distinction is why preparing for Neurocomputing is less about portal mechanics and more about whether the work makes a methodological claim the field can build on.
A Neurocomputing submission is realistic when four things are already true:
- the central result is a neural-network or learning-systems contribution (a new architecture, learning rule, dynamics result, or analysis), not a standard model applied to a new task
- benchmark gains are accompanied by ablations and an explanation of why the method works, not a single accuracy number
- the method is reproducible: code, hyperparameters, training protocol, and data access are described well enough to repeat
- the scope is neural-networks-and-learning-systems, not a knowledge-based reasoning system or a pure domain application
If one of those is missing, the Editorial Manager portal will not rescue the submission. Before you spend the slot, run a Neurocomputing manuscript fit check to test whether the learning-systems contribution, the ablation evidence, and the scope framing are already defensible.
From our manuscript review practice
In our pre-submission review work with Neurocomputing manuscripts, the most consistent early returns are not about the model being wrong. They are deep-learning applications presented with no neural-network or learning-systems contribution, benchmark tables that report a one-point accuracy gain with no ablations, and methods sections that cannot be reproduced from what is written.
What does the Neurocomputing submission portal require?
Neurocomputing's Editorial Manager portal needs your manuscript, figures, a data availability statement, a competing-interests declaration, CRediT author contributions, three to five highlights, ORCID iDs, and suggested reviewers. The harder requirement is editorial, not clerical: the portal cannot tell whether your work is a real learning-systems contribution rather than an application.
What to pressure-test | What should already be true before upload |
|---|---|
Journal fit | The result is a neural-network or learning-systems contribution, not a generic deep-learning application with a thin methods novelty. |
Evidence depth | Benchmark gains come with ablations and an analysis of why the method works, not a single accuracy delta. |
Reproducibility | Code, hyperparameters, training protocol, and data availability are described well enough to repeat. |
Declarations | Declaration of competing interests, data availability statement, CRediT author contributions, and ORCID iDs are ready. |
Highlights | Three to five article highlights and a clear statement of the methodological novelty are written. |
Source: Neurocomputing Guide for Authors (Elsevier ScienceDirect) and Editorial Manager submission requirements (accessed June 2026)
Neurocomputing is published by Elsevier and submits through the Editorial Manager system at Editorial Manager submission portal, linked from the journal's Guide for Authors on ScienceDirect. You register as a new user or log in, upload your manuscript and figure files, and step through the metadata: title, abstract, keywords, author roles, declarations, and suggested reviewers. Elsevier builds a merged PDF you should proof before completing the submission, because formatting and figure-placement errors at this stage are a frequent cause of avoidable resubmission.
The required artifacts are heavier than many authors expect for a methods journal. Neurocomputing expects a data availability statement, a declaration of competing interests, author contributions in CRediT format, three to five highlights (each under 85 characters), and ORCID iDs for authors. You are also asked to suggest qualified reviewers, which matters more than it looks: a narrow or self-conflicted reviewer list slows handling because the editor has to rebuild it. Get these ready before you open Editorial Manager, not during the upload.
What are the Neurocomputing initial-submission requirements?
Neurocomputing publishes Research Papers, Review Articles, and Software Publications. Most submissions are Research Papers, and the journal does not enforce a single hard word limit the way a letters journal does. Length is governed by completeness: an over-long paper is judged on whether every figure, table, and ablation earns its space, not on a fixed cap. That freedom is a trap for authors who pad a thin contribution to look substantial.
Research Papers should present a fundamental contribution to neural networks or learning systems. The methodological claim has to be visible in the abstract and the introduction, because that is what an Associate Editor reads first. A typical strong submission runs in the range of 6,000 to 9,000 words with the figures and tables a reviewer needs to judge the claim, but the number that matters is the ratio of novelty to length, not the length itself.
Review Articles are expected to synthesize a subfield with a genuine organizing argument, not to list papers. A survey that catalogs methods without a thesis about where the field is going is the most common reason a review is returned.
Software Publications disseminate non-trivial implementations: toolboxes, libraries, or systems with a real algorithmic contribution. A wrapper around an existing framework is not a Software Publication.
For files, Elsevier accepts standard manuscript formats and provides a LaTeX template; Neurocomputing uses single-anonymized peer review, so author names appear on the manuscript. There is no fixed figure cap, but every figure has to earn its place: a results section carrying 12 figures and 20 supplementary panels usually signals that the main contribution is not clear enough to stand on fewer.
Keep individual figure files under the portal's per-file size limit (commonly around 10 MB) and supply vector or high-resolution sources so production does not bounce them. Manuscripts that are unclear because of English-language quality can be returned for rewrite before review, so the language bar is enforced at triage, not deferred.
Before the contribution claim and declarations are locked, a Neurocomputing learning-systems contribution check can confirm whether the methodological novelty is stated clearly enough to survive the Associate-Editor screen.
How does the Neurocomputing editorial triage timeline work?
Neurocomputing assigns submissions to an Associate Editor who handles them through Editorial Manager. Community-reported data puts the first review round at roughly 1.7 months, with about 2.0 reports per submission and around 1.8 review rounds before a final decision. Treat the stages below as planning ranges, not commitments.
- Day 0: Submission and PDF build. Editorial Manager ingests your files and builds a merged PDF. You proof it, confirm the data availability statement, the competing-interests declaration, the CRediT contributions, and the highlights, then submit.
- Days 1 to 12: Editorial screening. Editorial staff and a handling editor check scope fit, format compliance, language quality, and whether the contribution is a learning-systems advance or an application.
The fastest returns happen in this window: generic deep-learning applications, out-of-scope work, and language-quality returns rarely reach external review. Community data reports immediate rejections in about 12 days.
- Days 12 to 21: Associate Editor assignment. An Associate Editor in the relevant neural-networks area takes the manuscript and decides whether to send it for external review.
Benchmark-only papers with no ablations and no analysis of why the method works are commonly returned here, before reviewers are invited.
- Days 21 to 50: Peer review. Reviewers are invited and reports return, typically two reports, on a multi-week cadence. Community data suggests a first round near 1.7 months is common, though subfield and reviewer load shift this.
- Weeks 7 to 12: Decision and revision. Reject, major revision, minor revision, or accept.
A revised manuscript must be accompanied by a point-by-point response letter. With about 1.8 rounds on average, most papers that pass review go through at least one major-revision cycle.
- Months 3 to 4: Final decision and production. Total handling time for accepted manuscripts runs to roughly 3.1 months from submission, with faster outcomes for clean, well-scoped contributions and slower ones for papers that need a second review round to settle reproducibility questions.
Common failure modes at Neurocomputing
In our pre-submission review work with Neurocomputing manuscripts, four patterns generate the most consistent early returns. None of them are about the model being wrong. They are about whether the work makes a neural-networks or learning-systems contribution the field can build on, which is exactly what this journal screens for before peer review begins.
In our review of neural-networks manuscripts, each of these is a named rejection pattern you can check your own draft against, and each reflects an editorial triage pattern specific to how Associate Editors at this journal read learning-systems submissions. Because the editor decides from the abstract, the figures, and the methods rather than from a pitch, a weak contribution claim has nothing to hide behind.
Editors consistently screen for these before sending a manuscript out for review.
Neurocomputing's Guide for Authors and Editorial Manager requirements define the mechanics below; the patterns describe how manuscripts coming through pre-submission review for this journal most often fall short of them. SciRev community data on this journal, where authors report a first review round near 1.7 months and immediate rejections in about 12 days, is consistent with what we see: most attrition happens at the Associate-Editor screen, before reviewers ever weigh in, and these four patterns are why.
A generic deep-learning application with no neural-network or learning-systems contribution. The single most common stall we see is a paper whose real story is "we applied a standard architecture to a new dataset." The model is a known transformer, CNN, or LSTM, the dataset is the only new element, and the methods section describes configuration rather than a learning-systems advance.
An Associate Editor at Neurocomputing reads the abstract and asks the obvious question: what does this teach the field about neural networks or learning that it did not already know? When the answer is "this domain now has a baseline," the work is an application paper, and Neurocomputing returns it because the contribution belongs in a domain venue, not a neural-computing journal.
The fix is to make the architecture, learning rule, or training analysis the protagonist, not the dataset.
Check whether your Neurocomputing paper makes a real learning-systems contribution →
Benchmark-only results that report a small gain with no ablations or analysis. The parallel failure on the evidence side is a results section built entirely around a leaderboard. The paper reports a one- or two-point accuracy improvement over prior methods on standard benchmarks, but there is no ablation isolating which component drives the gain, no analysis of why the method works, and no sensitivity study showing the result is not a tuning artifact.
Reviewers in this field treat ablations as part of the result, not an appendix, so a table of accuracy numbers with no decomposition reads as incomplete. The methods and experiments sections are where this is decided: if a reader cannot tell which design choice produced the improvement, the manuscript is not yet ready for this journal regardless of how good the headline number looks.
Check if your Neurocomputing experiments include the ablations reviewers expect →
Missing reproducibility: no code, hyperparameters, or training protocol. Neurocomputing increasingly expects computational work to be reproducible, and the most common reproducibility gap is a methods section that omits the details needed to repeat the result. The architecture diagram is present, but the hyperparameters, training schedule, random seeds, hardware, and data preprocessing are not, and there is no code link or data availability statement that actually resolves.
Because peer review here is single-anonymized and the work is judged on whether it advances learning systems, a result that cannot be reproduced from what is written is hard for a reviewer to trust. A manuscript that treats reproducibility artifacts as optional is returned more often than authors expect, and the fix is cheap: a complete training protocol and a working code or data link before submission.
Check whether your Neurocomputing methods are reproducible from the manuscript →
Scope drift toward a knowledge-systems or pure-application venue. Neurocomputing covers neural networks and learning systems, and a recurring desk return is a manuscript whose genuine contribution is a knowledge-based reasoning system, an expert system, a feature-engineering pipeline, or a domain application with a learning component bolted on for fit.
The introduction frames the work as neural computing, but the novel result is a rule-based system, an optimization heuristic, or an application outcome, and the learning model is a component rather than the advance. Associate Editors at this journal are neural-networks specialists, and they identify quickly when the learning method is the setting rather than the subject.
A manuscript whose real contribution would be evaluated more naturally by a knowledge-systems or applications reviewer is consistently identified as a scope mismatch before review, and the better target is usually a sibling Elsevier venue.
This guide tells you what Neurocomputing editors look for; a Manusights review tells you whether YOUR paper passes that screen. A Manusights review checks the learning-systems contribution, the ablation evidence, the reproducibility artifacts, and the scope framing against the editorial bar this journal applies before peer review. Paid Manusights reviews include a 60-day money-back guarantee, and we do not train models on submitted manuscripts.
Before submitting, a Neurocomputing contribution and scope readiness check tests whether your methodological novelty, ablation evidence, and scope framing clear the editorial bar this journal applies before peer review.
Readiness check
Run the scan against the requirements while they're in front of you.
See score, top issues, and journal-fit signals before you submit.
Should you submit to Neurocomputing or think twice?
The honest version of journal fit is a two-sided test. Neurocomputing is a strong, reasonably fast home for genuine neural-networks and learning-systems work, but it is the wrong target for several common manuscript shapes.
Submit If
- the central result is a neural-network or learning-systems contribution (a new architecture, learning rule, dynamics analysis, or theory), and the abstract states the methodological claim plainly
- benchmark results are accompanied by ablations and an analysis of why the method works, not a single accuracy delta
- the method is reproducible: code, hyperparameters, training protocol, and data access are described well enough to repeat
- the work is genuinely neural-computing in scope, and you need a faster route than IEEE Transactions on Neural Networks and Learning Systems
Think Twice If
- your paper applies a standard architecture to a new dataset with no architecture, learning-rule, or training-method novelty, which makes it an application paper rather than a neural-computing contribution
- your results section is a leaderboard with a one- or two-point gain and no ablation isolating which component drives it, so reviewers cannot tell whether the improvement is real or a tuning artifact
- your methods omit the hyperparameters, training protocol, or code needed to reproduce the result, leaving the central claim unverifiable
- the genuine contribution in your manuscript is a knowledge-based reasoning system, an expert system, or a domain application, and the learning model is only a component rather than the advance
How Neurocomputing compares with nearby neural-networks journals
Neurocomputing sits among several Q1 venues for neural networks and learning systems, and the right target depends on whether your work is a methods advance, a theory result, a vision contribution, or a knowledge-systems system, and how fast you need it out.
Journal | Journal metric (2024 JIF) | Scope and identity | Review speed | Open access |
|---|---|---|---|---|
Neurocomputing (Elsevier) | 6.5 impact factor; CiteScore 13.6 | Broad neural networks and learning systems: architectures, learning methods, dynamics, plus neurocomputing hardware/software | First round ~1.7 months; ~3.1 months total | Hybrid; gold OA APC ~$2,930 |
IEEE Transactions on Neural Networks and Learning Systems | ~13.7 | The discipline's flagship; favors deep theory and rigorous, archival learning-systems contributions | Longer; multi-month, often slower than Neurocomputing | Hybrid; IEEE APC ~$2,800 |
Neural Networks (Elsevier) | ~7.7 | Society journal (INNS/APNNS/JNNS); spans computational neuroscience to deep-learning theory | Multi-month; selective | Hybrid; Elsevier APC |
Pattern Recognition (Elsevier) | ~9.8 | Pattern-recognition methods and vision; the method must be the advance | Multi-month; rigorous | Hybrid; Elsevier APC |
Knowledge-Based Systems (Elsevier) | 7.6 impact factor; CiteScore 15.0 | Knowledge-based and intelligent systems; reasoning, decision support, applied intelligence | Multi-month | Hybrid; Elsevier APC |
Source: Clarivate JCR 2024, Resurchify, SciRev, and the journals' own author and pricing pages (accessed June 2026). Journal metrics vary slightly across databases; ranges reflect that.
The editorial-philosophy difference matters more than the metric gap. IEEE Transactions on Neural Networks and Learning Systems wants the theory to be the protagonist and rewards deep, archival contributions, which is why a strong but applied learning-systems study can read as under-theorized there but land cleanly at Neurocomputing. Neural Networks, the society journal, leans toward work with a computational-neuroscience or foundational-theory angle, so a paper grounded in biological plausibility or learning theory fits there.
Pattern Recognition is the right target when the contribution is a pattern-recognition or vision method itself, and Knowledge-Based Systems is the natural home when the real advance is a reasoning or decision-support system rather than a learning architecture. If your work is a complete, ablation-backed neural-networks contribution that needs a faster route than the IEEE flagship, Neurocomputing is usually the better fit. For the broader cluster, see the machine learning and AI journals overview.
Pre-submission checklist
- [ ] The central result is a genuine neural-network or learning-systems contribution, not a standard model applied to a new dataset
- [ ] Benchmark gains come with ablations and an explanation of why the method works, not a single accuracy number
- [ ] The method is reproducible: hyperparameters, training protocol, random seeds, and a working code or data link are provided
- [ ] The data availability statement, competing-interests declaration, and CRediT author contributions are ready
- [ ] Three to five highlights (each under 85 characters) state the methodological novelty
- [ ] Qualified, non-conflicted reviewers are suggested so the editor does not have to rebuild the list
- [ ] The Editorial Manager PDF has been proofed for figure-placement and formatting errors before final submission
- ] Run a [Neurocomputing submission readiness check to catch what editors filter for on first read
How was this Neurocomputing guide built?
This guide was built from the Neurocomputing Guide for Authors on Elsevier ScienceDirect, the Editorial Manager submission requirements, the journal's stated scope on neural networks and learning systems, and Manusights pre-submission review patterns from neural-networks manuscripts. We checked the required artifacts (data availability statement, CRediT contributions, highlights), the single-anonymized review model, and the open-access charge against Elsevier's own pages, and we cross-checked review-timing ranges against SciRev community data and Clarivate JCR 2024 journal metrics.
The failure patterns describe what we see most often when neural-networks manuscripts come through pre-submission review for this journal.
Use this page before you upload, when the official instructions cannot answer the real question: whether your learning-systems contribution, ablation evidence, reproducibility, and scope framing are already defensible. Source limitation: Elsevier updates artifact requirements, charges, and policies after this review date, so confirm administrative specifics against the journal's official pages before submission. To pressure-test the manuscript itself, run a manuscript readiness check.
What should you read next?
- IEEE Transactions on Neural Networks and Learning Systems submission process
- Pattern Recognition submission process
- For the broader cluster, see the machine learning and AI journals overview.
Before you upload, run your manuscript through a Neurocomputing submission package check to catch the contribution, ablation, and scope issues editors filter for on first read. The check is free to run (/ai-review) and takes a single upload.
Frequently asked questions
Submit through Elsevier's Editorial Manager system, linked from the journal's ScienceDirect Guide for Authors page. Register or log in, upload your manuscript and figures, and complete the metadata steps. You will need a declaration of competing interests, a data availability statement, author contributions in CRediT format, three to five article highlights, and ORCID iDs ready before you start. Neurocomputing also expects you to nominate qualified reviewers and to confirm the work is original and not under consideration elsewhere.
Community-reported data puts the first review round at roughly 1.7 months, with about 2.0 review reports per submission and around 1.8 review rounds before a final decision. Total handling time for accepted papers runs to roughly 3.1 months, and immediate (desk) rejections are returned in about 12 days. Treat these as planning ranges, not promises: handling time varies by subfield and reviewer availability. The fastest returns happen when the work is out of scope, is a generic deep-learning application, or reads as incremental against existing benchmarks.
Neurocomputing publishes fundamental contributions to neural networks and learning systems: architectures, learning methods, network-dynamics analysis, theories of learning and self-organization, plus hardware and software for neurocomputing. It is not a venue for a generic deep-learning application with no neural-network or learning-systems methodological contribution. Work whose real advance is a knowledge-based reasoning system, an expert system, or a domain application without a learning-architecture contribution fits sibling Elsevier venues such as Knowledge-Based Systems or Expert Systems with Applications better.
Neurocomputing is a hybrid journal. Subscription publication carries no author fee, and you can publish gold open access under a Creative Commons license by paying Elsevier's article processing charge, which sits around $2,930 USD excluding taxes. Verify the current figure on the Elsevier journal pricing page before submission, since Elsevier updates fee schedules and many institutions hold read-and-publish (transformative) agreements that cover the charge entirely.
The most common early returns are a generic deep-learning application with no neural-network or learning-systems methodological contribution, benchmark-only results that report a small accuracy gain with no ablations or analysis of why the method works, missing reproducibility artifacts such as code and training details, and scope drift toward a pure-application or knowledge-systems venue. Manuscripts unclear because of English-language quality can also be returned before review.
Sources
- Neurocomputing Guide for Authors (Elsevier ScienceDirect)
- Neurocomputing Editorial Manager submission portal
- Neurocomputing journal home (ScienceDirect)
- Neurocomputing peer-review statistics (SciRev)
- Neurocomputing journal metrics (Resurchify)
- IEEE Transactions on Neural Networks and Learning Systems author information (IEEE CIS)
- Neural Networks open access information (Elsevier)
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