Commissioned Research
Top 10 Best AI Drug Discovery Services of 2026

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Biotechnology Pharmaceuticals

Top 10 Best AI Drug Discovery Services of 2026

Top 10 ai drug discovery services comparison for teams shortlisting providers like Pharmaron, Owkin, and Evotec based on fit and tradeoffs.

19 min readUpdated Editorially scoped research
How we ranked these tools
01Editorial Scope

Vendors set the topic, but our editors set the inclusion criteria and the evaluation framework before research starts.

02Source Research

Search agents gather the source set and the review record, including transcriptions of video reviews and podcasts.

Read our full methodology →

Framework: Features 40% · Ease 30% · Value 30%

Gitnux may earn a commission through links on this page — this does not influence rankings. Editorial policy

AI drug discovery service providers combine target understanding, molecule design, and preclinical execution into delivery models that vary by data model depth, integration paths, and automation in the R&D workflow. This comparison helps R&D teams weigh where platforms like computational chemistry and generative design fit alongside experimental pipelines, and how to select a partner that can support throughput, data governance, and extensibility across discovery-to-development.

Pharmaron is the best pick for teams outsourcing iterative AI-to-lab discovery, because it couples computational molecule prioritization with chemistry and assay feedback in one continuous delivery chain, whereas Owkin fits early decisions that hinge on translational, biomarker-linked modeling tied to mechanism.

Editor’s top 3 picks

Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.

Editor pick
1

Pharmaron

Iterative coupling of computational molecule prioritization with chemistry and assay feedback in one delivery chain.

Best for: Fits when teams outsource iterative AI-to-lab discovery programs with cross-functional execution.

2

Owkin

Editor pick

Biomedical evidence-driven modeling that ties prediction work to therapeutic mechanism and translational selection criteria.

Best for: Fits when translational modeling and biomarker-linked prioritization drive early discovery decisions.

3

Evotec

Editor pick

AI-assisted discovery delivered with integrated medicinal chemistry and biology execution within a governed program cadence.

Best for: Fits when discovery programs need managed AI-assisted iteration and experimental continuity across stages.

Comparison Table

1
PharmaronBest overall
enterprise_vendor
9.2/10
Overall
2
specialist
8.8/10
Overall
3
enterprise_vendor
8.7/10
Overall
4
enterprise_vendor
8.3/10
Overall
5
8.1/10
Overall
6
specialist
7.9/10
Overall
7
specialist
7.5/10
Overall
8
specialist
7.3/10
Overall
9
specialist
6.9/10
Overall
10
6.6/10
Overall
#1

Pharmaron

enterprise_vendor

Pharmaron provides computational chemistry, hit discovery, medicinal chemistry, and integrated preclinical drug development services.

9.2/10
Overall
Features9.2/10
Ease of Use9.4/10
Value9.0/10
Standout feature

Iterative coupling of computational molecule prioritization with chemistry and assay feedback in one delivery chain.

Pharmaron typically supports target identification through lead optimization by pairing AI-driven molecule generation and screening workflows with medicinal chemistry execution. Programs often include virtual prioritization steps like docking-style ranking and multi-parameter property triage, then translate top candidates into synthesis and assay measurement cycles. Engagement fit is strongest when R&D teams need a managed scientific workflow that couples modeling decisions to experimental outcomes under consistent program governance.

A tradeoff shows up when internal teams expect a fully transparent, self-serve automation surface and deep model access, because the service shape centers on delivery rather than public API control. The best usage situation is an outsourcing or co-ownership program where rapid iteration speed and cross-functional handoffs matter more than building a bespoke internal AI stack.

Pros
  • +End-to-end delivery links virtual ranking to experimental iteration cycles
  • +Iteration-friendly workflows support fast lead-to-lead refinement
  • +Cross-functional execution covers synthesis, biology, and optimization handoffs
  • +Program governance improves continuity across multiple workstreams
Cons
  • –Less emphasis on customer-facing API and self-serve automation
  • –Deep model visibility may be limited for teams needing full control
Use scenarios
  • Biotech R&D leads

    Iterative lead optimization program

    Faster candidate convergence

  • Translational drug discovery

    Safety and property triage

    Higher lead quality

Show 2 more scenarios
  • Chemistry discovery groups

    Series expansion from leads

    More informative SAR

    Pharmaron coordinates new analogue design with synthesis planning and assay readouts to refine SAR.

  • Project management in R&D

    Multi-workstream discovery orchestration

    Reduced handoff delays

    Pharmaron aligns modeling outputs with wet-lab execution timelines across program milestones.

Best for: Fits when teams outsource iterative AI-to-lab discovery programs with cross-functional execution.

#2

Owkin

specialist

Owkin provides AI-driven biomarker discovery, multimodal biological analysis, and pharmaceutical research collaborations.

8.8/10
Overall
Features8.8/10
Ease of Use8.8/10
Value8.8/10
Standout feature

Biomedical evidence-driven modeling that ties prediction work to therapeutic mechanism and translational selection criteria.

Owkin is a strong fit for R&D teams that need models grounded in real biomedical signals, because the delivery centers on using heterogeneous evidence to guide discovery choices. The service workflow commonly covers data preparation for study-specific cohorts, model training and validation using structured study signals, and hypothesis iteration to align computational outputs with therapeutic mechanisms. This approach is most useful when programs require target stratification or biomarker-linked decision paths, not just hit finding.

A tradeoff is that Owkin’s impact is strongest when scientific objectives and data access are tightly defined up front, because the models depend on clean, governed inputs and clear evaluation targets. Teams should use Owkin when translational constraints matter early, such as selecting responder-enriched hypotheses, refining target involvement with human evidence, or prioritizing candidates with mechanistic and clinical grounding.

Pros
  • +Translational evidence integration for target and biomarker decisions
  • +Iterative modeling cycle aligned to narrowing hypotheses
  • +Strong emphasis on governed inputs and reproducible preparation
  • +Mechanism-linked prioritization that supports downstream planning
Cons
  • –Best outcomes depend on ready, well-governed biomedical datasets
  • –Discovery breadth may feel narrower for teams needing broad chemistry-only workflows
  • –Iterative engagement requires frequent alignment on success criteria
  • –Automation depth varies by program data maturity and access
Use scenarios
  • Translational science teams

    Responder-enriched target hypothesis refinement

    Sharper selection for follow-on assays

  • Biomarker discovery groups

    Biomarker-linked candidate prioritization

    Better-aligned biomarker plans

Show 2 more scenarios
  • Target identification leads

    Human evidence supported target ranking

    Reduced risk in target selection

    The service uses study signals to prioritize targets with clearer translational grounding.

  • Clinical data science teams

    Multi-source cohort modeling setup

    Consistent inputs for modeling

    Data preparation and modeling work turn heterogeneous sources into analyzable signals.

Best for: Fits when translational modeling and biomarker-linked prioritization drive early discovery decisions.

#3

Evotec

enterprise_vendor

Evotec offers integrated drug discovery services spanning target validation, screening, medicinal chemistry, and translational research.

8.7/10
Overall
Features8.7/10
Ease of Use8.6/10
Value8.8/10
Standout feature

AI-assisted discovery delivered with integrated medicinal chemistry and biology execution within a governed program cadence.

Evotec supports AI-enabled discovery workflows with structured scientific delivery that ties computational hypotheses to experimental iteration cycles. The strongest signals for fit come from end-to-end program ownership patterns, where modeling outputs connect to chemistry design and biology decision points rather than staying as offline analyses. This shape suits R&D leaders who need traceable study management across multiple discovery stages.

A tradeoff appears when teams expect a highly self-serve automation and integration layer with deep API-first access to models and datasets. Evotec also tends to fit best when the engagement already has a defined project scope and decision cadence, because execution quality depends on coordinated experiment design and review rhythms. Teams aiming for rapid internal toolchain replacement may find that a managed discovery workflow leaves less control than building an in-house model stack.

Pros
  • +Execution model connects computational designs to chemistry and biology decisions
  • +Program governance supports repeated discovery cycles with clear handoffs
  • +Cross-functional delivery helps reduce iteration gaps between design and experiment
Cons
  • –API-first, self-serve automation depth is limited versus tool vendors
  • –In-house control over models and datasets is lower than building internally
  • –Project-based engagement can slow changes to scope midstream
Use scenarios
  • Translational R&D leaders

    Coordinate early discovery to milestones

    Faster stage progression

  • Discovery chemistry teams

    Iterate hit-to-lead optimization

    More focused analogs

Show 2 more scenarios
  • Biology program managers

    Turn target hypotheses into assays

    Tighter design-test alignment

    Biology requirements drive how designed candidates move into testing and iteration loops.

  • External innovation partners

    Co-develop with controlled governance

    Reduced collaboration friction

    Shared program structure supports handoffs between AI design work and experimental ownership.

Best for: Fits when discovery programs need managed AI-assisted iteration and experimental continuity across stages.

#4

WuXi AppTec

enterprise_vendor

WuXi AppTec delivers computational chemistry, virtual screening, medicinal chemistry, and integrated drug discovery services.

8.3/10
Overall
Features8.3/10
Ease of Use8.3/10
Value8.3/10
Standout feature

Managed cross-disciplinary execution that turns modeling outputs into coordinated chemistry and biology iteration.

WuXi AppTec supports AI-enabled drug discovery through integrated discovery services that connect model-led design work with downstream chemistry, biology, and translational execution. The differentiation sits in managed, end-to-end delivery across target identification through lead optimization, rather than a narrow screening-only workflow.

Pros
  • +Integrated discovery-to-execution delivery across chemistry and biology teams
  • +Assay-informed iteration supports decisions beyond virtual screening outputs
  • +Project governance and handoff discipline reduce cross-team friction
  • +Breadth of modality support fits multi-series lead optimization work
Cons
  • –Less suited for teams needing self-serve model access and fine API control
  • –Workflow flexibility can depend on project structure and internal routing
  • –Model configuration and experimental design details are not exposed as software knobs
  • –Iteration cycles require schedule alignment with lab throughput realities

Best for: Fits when R&D teams need managed, cross-functional AI-assisted discovery with tight execution coupling.

#5

Charles River Laboratories

enterprise_vendor

Charles River Laboratories provides computational drug discovery, screening, medicinal chemistry, and preclinical development services.

8.1/10
Overall
Features8.1/10
Ease of Use8.2/10
Value8.0/10
Standout feature

End-to-end CRO study execution with structured reporting and protocol traceability across discovery to translational steps.

Charles River Laboratories runs outsourced drug discovery work that turns early hypotheses into development-ready assets, including medicinal chemistry support, in vitro and in vivo pharmacology, and translational study execution. It differentiates through large-scale experimental capacity and standardized execution across discovery and safety-adjacent programs, which reduces handoff risk between scientific stages.

Pros
  • +Large experimental throughput for pharmacology and translational studies
  • +Cross-disciplinary scientists coordinate chemistry through in vivo execution
  • +Study reporting is structured for internal review and decision meetings
  • +Operational rigor supports repeatable outcomes across multi-stage programs
Cons
  • –AI and automation access is limited compared with software-first discovery vendors
  • –Iteration speed depends on CRO scheduling rather than interactive model runs
  • –Deep technical integration with internal tools is not the primary delivery mode
  • –Workflows can feel governance-heavy for small discovery teams

Best for: Fits when teams need managed discovery execution with strong experimental standardization.

#6

Aqemia

specialist

Aqemia delivers generative chemistry and physics-based drug design services for small-molecule discovery.

7.9/10
Overall
Features7.9/10
Ease of Use7.9/10
Value7.9/10
Standout feature

An iteration-focused delivery style that ties structure-based design proposals to explicit medicinal chemistry objectives and follow-on experiment readiness.

Aqemia is an AI drug discovery service partner that focuses on end-to-end small-molecule programs rather than point tools for one stage. Core work covers target identification support, structure-based design iterations, and optimization cycles tied to measurable chemistry objectives.

Pros
  • +Structured modeling output designed for medicinal chemistry iteration cycles
  • +Strong focus on structure-driven design workflows with clear design rationale
  • +Managed support that translates client constraints into computational objectives
  • +Frequent iteration loops that keep proposals aligned to follow-on assay needs
Cons
  • –Limited transparency on internal configuration details for some modeling steps
  • –Best results depend on well-prepared target and assay intent inputs
  • –Delivers most value when there is an active chemistry and assay feedback loop
  • –May be slower to adjust when programs require large pivots mid-cycle

Best for: Fits when mid-size R&D groups need managed structure-led iterations that convert modeling output into chemistry-ready proposals.

#7

X-Chem

specialist

X-Chem provides DNA-encoded library screening, computational chemistry, and AI-supported small-molecule discovery services.

7.5/10
Overall
Features7.5/10
Ease of Use7.4/10
Value7.6/10
Standout feature

Chemist-facing iterative design cycles that translate predicted properties into curated compound sets for lead optimization.

X-Chem delivers AI-driven drug discovery services that focus on medicinal chemistry support from early hit identification through hit-to-lead optimization. The service is structured around chemistry-aware workflows that connect compound design, property prediction, and iterative iteration planning for teams that need practical chemist-facing outputs.

Pros
  • +Chemistry-grounded candidate iteration designed for medicinal chemistry workflows
  • +Computational support tailored to narrow down viable lead series faster
  • +Service outputs align with experimental selection cycles rather than concept-only deliverables
  • +Engagement structure fits teams that want tight handoff into discovery operations
Cons
  • –Limited transparency on the exact model stack and proprietary workflow components
  • –Workflow fit depends on providing assay context and target data in a usable format
  • –Automation depth is service-led rather than driven by a self-serve automation surface
  • –Integration and governance maturity are constrained by engagement setup scope

Best for: Fits when discovery groups need chemistry-first iteration support bridging computation and experimental triage.

#8

Jubilant Biosys

specialist

Jubilant Biosys provides AI and computational chemistry, structural biology, screening, and medicinal chemistry services.

7.3/10
Overall
Features7.3/10
Ease of Use7.3/10
Value7.3/10
Standout feature

Iteration workflows that translate AI design outputs into medicinal chemistry series for experimental follow-through.

Jubilant Biosys delivers AI-driven discovery work anchored in chemistry and biology execution for target identification through hit-to-lead optimization. The provider is differentiated by managed workflows that combine in silico design with medicinal chemistry support to move concepts toward experimentally testable series.

Pros
  • +Managed iteration loops that connect design decisions to lab-ready follow-ons.
  • +Strong linkage between in silico work and medicinal chemistry execution for series progression.
  • +Program-level workflow framing that supports end-to-end discovery phases.
Cons
  • –Limited public detail on integration surface like API and automation tooling.
  • –Virtual screening depth and modeling stack are not documented with clear technical granularity.
  • –Governance controls for external collaboration and data access are not described operationally.

Best for: Fits when R&D groups need AI-assisted design plus medicinal chemistry execution across discovery-to-series steps.

#9

Domainex

specialist

Domainex provides computational chemistry, fragment screening, medicinal chemistry, and integrated small-molecule discovery services.

6.9/10
Overall
Features6.9/10
Ease of Use6.9/10
Value6.9/10
Standout feature

Managed workflow automation that connects target-stage outputs to hit and optimization prioritization decisions.

Domainex delivers AI-led support for drug discovery workstreams that typically start with target selection and move through hit identification and hit-to-lead optimization. Domainex’s core capability centers on translating biological and chemical inputs into prioritized hypotheses that R&D teams can feed into screening and optimization phases.

Pros
  • +Clear end-to-end pathway from target work into optimization decisions
  • +Workflow automation supports iteration across multiple discovery stages
  • +Integration focus reduces manual handoffs between discovery phases
  • +Output prioritization aligns with screening and medicinal chemistry follow-up
Cons
  • –Depth depends on provided input quality and curation
  • –Automation hinges on integration work that can slow early starts
  • –API and extensibility details are not prominently documented in public materials
  • –Less suited for teams wanting fully autonomous, self-serve execution

Best for: Fits when mid-to-enterprise teams need managed AI decision support across discovery stages with controlled data flow.

#10

Insilico Medicine

specialist

Insilico Medicine provides AI-based target discovery, molecular generation, and preclinical drug development partnerships.

6.6/10
Overall
Features6.6/10
Ease of Use6.6/10
Value6.6/10
Standout feature

Design-to-prioritization workflow that converts generative chemistry outputs into a structured selection funnel.

Insilico Medicine fits teams that need end-to-end AI drug discovery support across target work, molecule design, and candidate prioritization for programs that benefit from rapid iteration. The company delivers through a project workflow that combines model-driven chemistry generation with downstream evaluation to rank compounds for follow-on biology.

Pros
  • +Generative chemistry workflow linked to a compound prioritization decision loop
  • +Program-centric delivery that maps model outputs to medicinal chemistry handoffs
  • +Breadth across discovery stages from early hypothesis to candidate selection
  • +Strong focus on actionable candidates instead of raw model outputs
Cons
  • –Governance and integration effort rise when data formats differ across partners
  • –Workflow depth can require tighter scoping than purely retrospective analyses
  • –External bench alignment is dependent on clear success metrics and timing
  • –Less transparent about model internals than teams may expect

Best for: Fits when R&D teams want managed AI-driven discovery iterations with candidate outputs ready for medicinal chemistry evaluation.

Conclusion

After evaluating 10 ai drug discovery, Pharmaron stands out as our overall top pick — it scored highest across our combined criteria of features, ease of use, and value, which is why it sits at #1 in the rankings above.

Our Top Pick
Pharmaron

Use the comparison table and detailed reviews above to validate the fit against your own requirements before committing to a tool.

How to Choose the Right Ai Drug Discovery

We see big differences in ai drug discovery outputs driven by your choices for data and run control—especially data lineage and provenance. Next, automation and API surface affect whether the same workflow can be repeated when your experiment design changes.

Data lineage and provenance

Why it matters

Data lineage and provenance keep ai drug discovery results interpretable when assays, structures, and annotations move between teams. It also tells us which inputs were used for a run, not just which outputs appeared.

How to check

Ask for a sample run report and click through to the original inputs for each score, hit list, or candidate record. Confirm you can trace every key field back to a stored source item and timestamp in the UI or via export.

Workflow automation and job control

Why it matters

Workflow automation and job control determine whether we can rerun virtual screening and subsequent steps consistently across target changes. Without it, reproducibility degrades as soon as we iterate.

How to check

In a demo, queue a multi-step workflow (e.g., generate candidates, then evaluate) and change one setting to see what reruns automatically. Check whether jobs expose statuses, retries, and rerun-from-step behavior.

API coverage and extensibility

Why it matters

API coverage and extensibility matter in ai drug discovery because pipelines often need to pull structures, assay tables, and model artifacts from existing lab tooling. We want enough surface area to automate without manual copying.

How to check

Request an API walkthrough using endpoints for starting runs, monitoring status, and fetching results. Verify you can submit a batch input file and retrieve standardized output fields for downstream analysis.

Bio-chem data model and schema

Why it matters

A strong bio-chem data model and schema prevents mismatches when we mix structures, sequences, assay readouts, and metadata. It also reduces re-mapping effort when you add a new target or assay.

How to check

Provide a sample import template and try importing: one structure set plus one assay results file plus target annotations. Validate that the tool preserves units, identifiers, and relationships (compound↔assay↔target) without flattening everything into text.

Configuration controls for reproducibility

Why it matters

Configuration controls for reproducibility let us compare runs fairly as we test target hypotheses or model settings. This is critical when a best-of article shows impressive candidates but omits what settings produced them.

How to check

Ask to export the exact configuration for a past run and re-run it in a sandbox environment. Compare outputs to confirm deterministic inputs and logged parameters (including model selection, thresholds, and filters).

Result trace from candidates to inputs

Why it matters

Result trace from candidates to inputs helps us audit why a candidate rose or fell, not just what it ranked. In ai drug discovery, that trace is what supports translational follow-up planning.

How to check

Pick one candidate from a demo output and drill down to see supporting evidence fields and the specific inputs used. Confirm you can view intermediate artifacts (e.g., similarity or assay mapping) and download them for review.

Red flags

  • Run history doesn’t let us trace outputs back to the exact input files and timestamps.
  • Automation reruns only parts of a workflow without clear job status and step dependencies.
  • Candidate explanations show results but not the underlying input evidence or parameters.

Fit by situation

  • If we routinely iterate targets and compare runs side-by-side, prioritize configuration controls for reproducibility.
  • If our team mixes assay tables and structure libraries from multiple sources, prioritize data lineage and provenance.
  • If we need to connect candidate generation to internal pipelines, prioritize API coverage and extensibility.

Frequently Asked Questions About Ai Drug Discovery

How do data integration and API access differ across AI drug discovery services?
Domainex organizes work around data integration and workflow automation that connect target-stage outputs to downstream prioritization decisions. Owkin focuses on evidence integration across biomedical sources so inputs stay traceable during iterative refinement. Aqemia and Insilico Medicine typically deliver modeling outputs as structured artifacts for medicinal chemistry handoff rather than as a self-serve API-first product surface.
Which providers support SSO, RBAC, and audit logs for discovery teams?
Evotec runs governed discovery cycles and aligns access and governance with recurring project cadence across biology and medicinal chemistry teams. Charles River Laboratories applies traceable study conduct and protocol handling across discovery and safety-adjacent workflows. Pharmaron coordinates end-to-end programs that include chemistry, biology, and development execution with controlled collaboration across functions.
How does data migration work when moving assay results and chemistry records into a new provider workflow?
Owkin emphasizes reproducible data preparation and traceable inputs so historical evidence and molecular context remain consistent across iterations. WuXi AppTec stresses data handoff quality across disciplines during target identification through lead optimization, which helps reduce schema drift between internal systems and external workstreams. Insilico Medicine uses a design-to-prioritization loop that expects candidate outputs to map cleanly into decision gates used by medicinal chemistry teams.
What onboarding artifacts and schemas do teams need before model-driven discovery starts?
X-Chem structures chemistry-first iteration and expects compound sets that include curated properties to plan lead optimization triage. Insilico Medicine converts generative chemistry outputs into a structured selection funnel that depends on explicit decision gates and ranking criteria. Jubilant Biosys runs iteration workflows that translate design outputs into medicinal chemistry series, so the incoming data model must support round-to-round experimental learning.
When should a project choose managed structure-based design iterations versus a chemistry-first support posture?
Aqemia fits programs needing end-to-end small-molecule iterations where structure-based design proposals tie to measurable chemistry objectives and follow-on experiment readiness. X-Chem fits teams that want chemist-facing outputs where predicted properties translate into curated compound sets for hit-to-lead progression. Domainex fits teams that prioritize controlled data flow and repeatable decision points across hit identification and hit-to-lead optimization.
What breaks if a discovery workflow lacks clear integration between design outputs and experimental decision gates?
Insilico Medicine’s selection loop depends on translating candidate outputs into actionable inputs for medicinal chemistry evaluation, so weak decision-gate definitions stall prioritization. Evotec’s execution-led operating model ties AI-assisted discovery work to internal biology and medicinal chemistry delivery, so misaligned governance creates handoff gaps between stages. Pharmaron’s iterative coupling of computational prioritization with wet-lab feedback breaks down when assay identifiers and chemistry iteration history cannot be mapped into the program workflow.
Which provider fit tends to work best for translational and biomarker-linked prioritization decisions?
Owkin pairs predictive modeling with biomedical domain context and ties prioritization to therapeutic mechanism and translational selection criteria. Charles River Laboratories leans on experimental capacity and standardized execution across discovery and translational steps, which supports evidence generation for downstream decisions. WuXi AppTec connects structure and ligand modeling support with assay-informed decisioning across an end-to-end delivery chain.
How do delivery models differ between CRO-style execution and iterative AI-to-lab discovery programs?
Charles River Laboratories emphasizes outsourced study execution with standardized conduct and audit-friendly reporting across discovery and safety-adjacent workflows. Pharmaron and WuXi AppTec coordinate modeling outputs with wet-lab generation and testing cycles so iterative computational prioritization feeds directly into experimental follow-through. Evotec also combines computational design work with internal biology and medicinal chemistry delivery under a governed project cadence.
What technical requirements matter most for throughput and repeatability in AI-assisted discovery?
Domainex organizes workflow automation around repeatable decision points, which improves throughput when incoming data stays consistent across rounds. Owkin’s focus on traceable inputs and reproducible data preparation supports repeatable evidence-driven modeling across narrowing hypotheses. Aqemia’s iteration-focused delivery expects chemistry-ready proposal sets, so throughput depends on maintaining a consistent structure-based design objective and evaluation target across iterations.

Tools reviewed

Primary sources checked during evaluation.

Referenced in the comparison table and product reviews above.

Commissioned Research

Funding and competing interests

This study was co-funded by several of the vendors assessed in it. No single vendor funded it. Funders could propose the market studied.

They had no role in selecting vendors, setting or weighting criteria, analysing data or drawing conclusions, and they received the same factual-accuracy check as every other vendor assessed.

Market definition, inclusion rules and criteria weights were fixed by an editor before research began and did not change afterwards. Editorial process →

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