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Top 10 Best Particle Size Analysis Software of 2026

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Top 10 Best Particle Size Analysis Software of 2026

Compare particle size analysis software options and how they fit different lab workflows, with practical notes for choosing tools like Microtrac.

20 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%

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Particle size analysis software determines how labs convert instrument signals into comparable size distributions, shape metrics, and traceable reports. This comparison helps analysts, operators, and technical evaluators weigh measurement method fit and reporting workflow alignment across common instrument families, including laser diffraction systems from vendors like Malvern.

Microtrac Particle Characterization Software is the best pick for enterprise labs that want consistent batch runs and documentation, thanks to report templates that generate per-sample PDFs from the same stored run metadata used for analysis, whereas BeNano fits frequent nanoparticle batches because its batch workflow keeps calculation settings tied to each run for repeatable distribution metrics and exports.

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

Microtrac Particle Characterization Software

Report templates generate per-sample PDFs from the same stored run metadata used for analysis results.

Best for: Fits when labs need consistent batch runs, standardized reports, and export-ready results.

2

BeNano

Editor pick

Batch analysis keeps calculation settings tied to each run so distribution metrics and exports stay consistent across repeats.

Best for: Fits when lab teams run frequent particle size batches and need standardized metrics plus exportable raw data.

3

ImageJ

Editor pick

Macro and plugin scripting lets segmentation rules, calibration, and exports run as a single repeatable batch pipeline within ImageJ.

Best for: Fits when particle size is derived from microscopy images and lab teams need repeatable, scriptable segmentation and export workflows.

Comparison Table

1
9.2/10
Overall
2
vertical specialist
8.7/10
Overall
3
open-source
8.6/10
Overall
4
8.5/10
Overall
5
open-source
8.3/10
Overall
6
vertical specialist
7.8/10
Overall
7
7.4/10
Overall
8
enterprise
7.3/10
Overall
9
vertical specialist
6.8/10
Overall
10
open-source
6.7/10
Overall
#1

Microtrac Particle Characterization Software

enterprise

Software environment for particle size measurement across laser diffraction, image analysis, and adsorption systems.

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

Report templates generate per-sample PDFs from the same stored run metadata used for analysis results.

Microtrac Particle Characterization Software is built around instrument control and measurement run capture, with method settings kept alongside the resulting distributions. Reporting emphasizes interpretable outputs like characteristic diameters and distribution descriptors, and it can generate formatted PDF reports for batch documentation. Export options support moving results into spreadsheets and external systems for review workflows and recordkeeping.

A key tradeoff is that deeper automation and integration depend on how the target instrument set is supported and how batch and sequence settings are modeled in the installed configuration. Microtrac Particle Characterization Software fits labs that run frequent repeat measurements on the same instrument configuration and need consistent report generation across samples.

Pros
  • +Tight coupling of instrument runs to saved method settings
  • +Batch reporting with PDF output for consistent documentation
  • +Supports spreadsheet exports for downstream statistical review
  • +Designed for repeatable workflows across many samples
Cons
  • –Automation depth varies with instrument integration breadth
  • –Method development workflows require careful parameter governance
Use scenarios
  • Quality control teams

    Batch laser diffraction result documentation

    Faster release documentation

  • R and D method developers

    Iterate refractive index and dispersion settings

    More traceable method iterations

Show 2 more scenarios
  • Lab automation engineers

    Sequence repeated measurements

    Lower operator variability

    Configured batch workflows reduce manual steps during high-throughput testing.

  • Regulated lab document owners

    Export records for audits and review

    Cleaner traceability for records

    Exportable results support external review and retention aligned to internal SOPs.

Best for: Fits when labs need consistent batch runs, standardized reports, and export-ready results.

#2

BeNano

vertical specialist

Nanoparticle size analysis software for dynamic light scattering and zeta potential workflows.

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

Batch analysis keeps calculation settings tied to each run so distribution metrics and exports stay consistent across repeats.

BeNano targets labs that need repeatable particle size distribution reporting from laser diffraction and related scattering inputs by centralizing calculation settings per batch. It provides report generation that can combine multiple samples and persist the analysis context alongside computed distribution statistics. It also supports export of both computed results and raw scattering data so teams can re-audit calculations or feed downstream review tools.

A practical tradeoff is that consistent results depend on disciplined configuration of optical and dispersion assumptions before analysis runs. BeNano fits lab schedules where analysts run frequent sample batches and require standardized report output for internal reviews and method SOP workflows.

Pros
  • +Centralized batch workflow for repeatable particle size distribution reporting
  • +Exports both computed metrics and raw scattering data for re-review
  • +Optical model and refractive index inputs reduce analysis guesswork
  • +Report generation supports multi-sample output without manual reformatting
Cons
  • –Result consistency depends on upfront optical and dispersion configuration
  • –Method development requires more analyst attention than simple one-off analysis
  • –Some workflows rely on instrument-specific export compatibility
  • –Large batches can take operator time for naming and grouping
Use scenarios
  • QC analysts in production labs

    Batch D10, D50, D90 reporting

    Faster release package preparation

  • Method development scientists

    Re-run calculations with new assumptions

    Clearer method comparison trails

Show 1 more scenario
  • Regulated lab documentation leads

    Standardized batch record generation

    More consistent documentation packets

    Teams generate report outputs for each sample group and retain analysis context for internal review workflows.

Best for: Fits when lab teams run frequent particle size batches and need standardized metrics plus exportable raw data.

#3

ImageJ

open-source

Public-domain image processing program by NIH used for particle size and shape measurement via macros.

8.6/10
Overall
Features8.6/10
Ease of Use8.6/10
Value8.6/10
Standout feature

Macro and plugin scripting lets segmentation rules, calibration, and exports run as a single repeatable batch pipeline within ImageJ.

ImageJ is frequently used for microscopy-based particle sizing because measurement starts with image calibration and object segmentation.

Particle size distribution outputs come from measured object dimensions and summary statistics computed from ImageJ result tables.

Automation relies on macros and plugins for batch runs and repeatable pipelines, while reporting depth depends on exports and custom post-processing.

Pros
  • +Segmentation pipelines convert images into calibrated size distributions
  • +Batch runs with macros for repeatable measurement workflows
  • +Result tables export cleanly for custom analysis and plotting
  • +Extensible plugin ecosystem covers many image-analysis edge cases
Cons
  • –Works from images, not native laser diffraction or scattering raw data
  • –Method reporting relies on user-created scripts and export formatting
  • –No built-in instrument control layer for third-party particle sizers
  • –Large-scale automation needs scripting discipline to maintain traceability
Use scenarios
  • Materials and geology analysts

    Segment grains and compute size distributions

    Image-derived particle metrics

  • Imaging researchers

    Analyze image stacks in 3D

    Volumetric image measurements

Show 2 more scenarios
  • Biomedical microscopy researchers

    Quantify fluorescence and morphology

    Quantitative cell metrics

    ImageJ supports measuring intensity and morphological features from single-channel or multi-channel microscopy images.

  • Biomedical imaging teams

    Document annotated measurement results

    Quantified and documented results

    Teams inspect slices and derived images, apply annotations, and run custom measurement pipelines.

Best for: Fits when particle size is derived from microscopy images and lab teams need repeatable, scriptable segmentation and export workflows.

#4

HORIBA LA Series

enterprise

Laser diffraction particle size analysis software for HORIBA particle analyzers.

8.5/10
Overall
Features8.5/10
Ease of Use8.5/10
Value8.5/10
Standout feature

Audit trail tied to instrument-driven analysis steps for traceable method application across batch runs.

HORIBA LA Series centers on laser diffraction particle size distribution workflows that tie instrument measurements to repeatable reporting outputs. It includes instrument control, method parameter handling like refractive index input and dispersion settings, and automated calculations for size metrics.

Pros
  • +Tight coupling between LA instrument runs and method parameter capture
  • +Batch analysis workflow supports consistent processing across multiple samples
  • +Raw scattering data export supports deeper troubleshooting beyond summary plots
  • +Report generation includes particle size distribution outputs and computed metrics
Cons
  • –Advanced method development often depends on operator familiarity with diffraction settings
  • –Reproducibility across sites can require disciplined configuration management
  • –Integration depth beyond instrument control can be limited without local IT work
  • –Workflow UI can feel less streamlined for highly customized reporting layouts
Use scenarios
  • QA and compliance teams

    Generate audit-traceable particle reports

    Audit-traceable size reporting

  • Materials characterization engineers

    Run batch laser diffraction methods

    Repeatable size distribution outputs

Show 1 more scenario
  • Process development analysts

    Export raw scattering and results

    Both raw and tabular outputs

    The software supports exporting raw scattering data alongside computed size metrics for downstream review and documentation.

Best for: Fits when lab teams need repeatable laser diffraction workflows with audit-aware traceability and batch reporting.

#5

CellProfiler

open-source

Open-source image analysis software by Broad Institute applicable to particle detection and measurement.

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

Configurable pipeline graphs let segmentation, measurement, and export run identically across large batches.

CellProfiler’s core capability is workflow-based automation for microscopy-style size and distribution measurements using segmentation and measurement modules. Pipelines can compute size-related features per detected object, then aggregate those into summary distributions that can be exported for reporting. It supports batch runs across folders and can reuse the same pipeline across instruments when images are normalized to consistent acquisition and file formats.

Pros
  • +Pipeline automation makes segmentation and sizing steps repeatable at scale.
  • +Python modules enable custom measurement logic beyond built-in filters.
  • +Exportable tables and batch runs support distribution reporting workflows.
  • +Reusable pipelines reduce drift across batch and multi-operator runs.
Cons
  • –Image-derived sizing requires careful segmentation and sample presentation control.
  • –No native instrument control for scattering systems or automated refractive index inputs.
  • –Complex pipelines can slow troubleshooting when steps share intermediate outputs.
Use scenarios
  • R&D microscopy teams

    Batch sizing from captured micrographs

    Consistent particle size distributions

  • Quality and validation leads

    SOP automation for imaging assays

    Repeatable analysis across operators

Show 1 more scenario
  • Process engineers

    Method development on sample prep

    Lower measurement variance

    Supports rapid iteration on preprocessing and measurement logic to reduce bias from imaging conditions.

Best for: Fits when lab teams need reproducible image-based particle size distribution from batch microscopy.

#6

Analysette Software

vertical specialist

Particle size analysis software for laser particle sizers and lab sizing instruments.

7.8/10
Overall
Features7.8/10
Ease of Use7.8/10
Value7.8/10
Standout feature

Method-driven batch execution with built-in report generation aligned to recurring particle size workflows.

Analysette Software from Fritsch International is particle size analysis instrument control and reporting software built around Fritsch measurement workflows. It centers on method-driven analysis, including dispersion and optical parameter handling, then produces measurement outputs that lab teams can review and export.

Pros
  • +Method-first workflow keeps analysis steps consistent across batch runs
  • +Standard export formats support downstream review and spreadsheet workflows
  • +Dispersion and optical parameter inputs reduce variability in routine runs
  • +Report generation supports recurring templates for frequent measurements
Cons
  • –Automation depth for multi-instrument labs is limited outside Fritsch setups
  • –API access and external system integration options are not clearly documented
Use scenarios
  • Routine lab technicians

    Produce SOP-aligned size distribution reports

    SOP-aligned reporting

  • Production control analysts

    Batch-run repeated measurement methods

    Consistent batch outputs

Show 1 more scenario
  • Data review and compliance staff

    Export CSV and XLS for records

    Spreadsheet-ready measurement exports

    The software outputs measurement results for review and downstream storage via spreadsheet-friendly file exports.

Best for: Fits when labs run Fritsch laser diffraction or related particle measurements and need consistent batch reporting.

#7

LS 13 320 Software

enterprise

Particle size distribution software for laser diffraction analysis on Beckman Coulter systems.

7.4/10
Overall
Features7.4/10
Ease of Use7.4/10
Value7.4/10
Standout feature

Report outputs are directly driven by instrument-based method calculations, keeping D10 to D90 summaries aligned with each acquisition sequence.

LS 13 320 Software from Beckman Coulter is distinct for its tight pairing with Beckman Coulter particle size instruments and its measurement-to-report workflow for routine lab use. The software supports laser diffraction calculations and provides structured outputs such as particle size distributions with summary metrics like D10, D50, and D90.

Pros
  • +Instrument-tuned workflows reduce rework between acquisition and distribution reporting
  • +Method settings keep refractive index and calculation inputs consistent across runs
  • +Distribution outputs include common D10, D50, and D90 summaries for fast review
  • +Report generation supports export for documentation and downstream analysis
Cons
  • –Deeper automation depends on how instrument control and workflow are deployed
  • –Multi-instrument integration is narrower than general-purpose lab data systems
Use scenarios
  • QC analysts in regulated labs

    Generate D10 D50 D90 reports

    Standardized distribution summaries

  • Particle measurement operators

    Apply refractive index and dispersion settings

    Repeatable dispersion calculations

Show 1 more scenario
  • Lab documentation reviewers

    Export report formats for records

    Documentation-friendly exports

    The software generates reports from calculated results and supports export formats used for internal data review cycles.

Best for: Fits when lab teams need repeatable laser diffraction workflows and report exports tied to Beckman Coulter instrument runs.

#8

Image-Pro

enterprise

Image analysis software with particle counting and size distribution tools.

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

Batch-style analysis execution with consistent distribution and summary generation from imported measurement outputs.

Image-Pro from mediacy.com targets particle size workflows that need report-ready distributions and repeatable processing steps. The tool focuses on importing measurement outputs, standardizing analysis outputs like size distributions and summary statistics, and generating document-ready results for routine lab use.

Pros
  • +Batch analysis workflow supports repeated runs with consistent processing steps.
  • +Exports results to common spreadsheet formats for downstream review and rework.
  • +Generates report-style outputs for routine study documentation and sharing.
  • +Focus stays on analysis packaging, with fewer moving parts than instrument control suites.
Cons
  • –Limited coverage of instrument control and method authoring compared with vendor software.
  • –Multi-instrument integration depth can be shallow for labs running mixed hardware.
  • –Automation surfaces rely more on workflow repetition than API-driven orchestration.
  • –Finer governance features like RBAC and detailed audit log are not emphasized in product docs.
Use scenarios
  • Imaging-based materials teams

    Standardize particle distributions from images

    Report-ready distributions

  • Image analysts in clinical studies

    Apply consistent morphology measurement protocols

    More consistent morphology metrics

Show 2 more scenarios
  • Metallography and quality teams

    Measure metallographic image features

    Structured inspection measurements

    The tool processes microscopy images into structured image measurements used for materials inspection reporting.

  • Cell biology research teams

    Quantify cell size and 2D shape

    Quantitative cell measurements

    Image-Pro measures cell size, shape, and other 2D characteristics across multichannel or plate-based image sets.

Best for: Fits when labs need standardized particle size reporting from exported measurements without heavy instrument integration.

#9

Particle Insight

vertical specialist

Particle size and shape analysis software for dynamic image analysis instruments.

6.8/10
Overall
Features6.8/10
Ease of Use6.8/10
Value6.8/10
Standout feature

Parameter-linked reanalysis with preserved method settings across batches for traceable PSD reporting.

Particle Insight performs particle size distribution review by importing raw measurement outputs from common laser diffraction and scattering workflows and turning them into method-controlled reports. It supports repeatable analysis steps such as background subtraction and dispersion-related settings, then recalculates size distributions with consistent parameter tracking. Particle Insight also supports exporting numeric results and generating formatted report documents for cross-lab comparisons and audits.

Pros
  • +Method-controlled reanalysis keeps key settings tied to each reported distribution.
  • +Supports background subtraction and refractive index inputs during recalculation.
  • +Exports results to spreadsheets and generates consistent PDF-style reports.
  • +Handles multi-batch review so the same workflow applies across runs.
Cons
  • –Deeper automation depends on instrument software exports and setup discipline.
  • –Complex SOP automation requires more configuration than single-user spreadsheet workflows.
Use scenarios
  • Cross-lab reporting teams

    Recalculate distributions with tracked parameters

    Consistent method-controlled results

  • Method review analysts

    Create formatted reports from raw outputs

    Audit-ready report documents

Show 1 more scenario
  • Materials characterization teams

    Convert scattering outputs into reviewable metrics

    Reviewable size metrics

    Imported laser diffraction and scattering outputs are transformed into method-controlled reports for downstream review.

Best for: Fits when lab groups need repeatable, parameter-tracked PSD reporting across repeated instrument runs.

#10

Fiji

open-source

ImageJ distribution bundling plugins for scientific image analysis including particle sizing workflows.

6.7/10
Overall
Features6.7/10
Ease of Use6.7/10
Value6.7/10
Standout feature

Standardized calculation-to-report batch execution that converts instrument raw files into repeatable distribution outputs.

Fiji performs particle size distribution workflows by ingesting raw scattering measurement files, running calculation steps, and producing standard lab reports.

Pros
  • +Batch-ready workflow turns raw measurement files into consistent lab reports
  • +Method settings support refractive index input and background handling
  • +Exports fit common lab analysis pipelines using spreadsheet formats
  • +Report generation helps keep distribution metrics standardized across runs
Cons
  • –Limited visibility into instrument control means it relies on the instrument software
  • –Automation options appear file-centered rather than API-first for deep integrations
  • –Advanced governance controls are not clearly positioned for regulated multi-user labs
  • –Cross-instrument method equivalence workflows can require careful setup discipline
Use scenarios
  • Materials imaging researchers

    Measure particles and microstructures

    Image measurements and classifications

  • Imaging teams running repeated experiments

    Run batch processing with saved macros

    Less manual processing

Show 2 more scenarios
  • Microscopy and cell biology researchers

    Segment and quantify microscopy signals

    Quantitative microscopy measurements

    Fiji supports segmentation, counting, intensity measurement, and region-based analysis for microscopy datasets.

  • Imaging operators and analysts

    Create panoramic stitched images

    Stitched images for analysis

    Fiji aligns overlapping images, refines control points, corrects capture issues, and blends images into panoramic outputs.

Best for: Fits when lab teams need batch particle size reporting with consistent inputs and spreadsheet exports.

Conclusion

After evaluating 10 particle size analysis software, Microtrac Particle Characterization Software 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
Microtrac Particle Characterization Software

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

Frequently Asked Questions About Particle Size Analysis Software

How does BeNano keep particle size distribution calculations consistent across repeated runs?
BeNano ties batch analysis settings to each run so refractive index and optical model choices stay linked to the computed D10, D50, and D90. This keeps the calculation-to-export pipeline stable when analysts repeat measurements with different samples.
Which tool is better when particle size work starts from microscopy images rather than instrument scattering data?
CellProfiler suits image-driven pipelines because it runs reproducible Python-based workflows from import through segmentation and feature extraction to size metrics. ImageJ also handles batch processing and exports, but it relies on macros and calibration-driven image measurement instead of instrument method layers.
When labs need laser diffraction method parameter handling plus audit-aware traceability, which option fits best?
HORIBA LA Series targets instrument-driven analysis steps and includes audit trail capabilities tied to user actions during analysis sessions. Particle Insight also tracks method-linked reanalysis, but it focuses on review and recalculation from imported measurement outputs rather than instrument session traceability.
What breaks if method settings like refractive index and dispersion assumptions are not preserved during reanalysis?
Particle Insight can recompute PSD outputs with preserved parameter linkage, so D10 to D90 comparisons remain traceable across batches. If those settings are not carried forward, recalculated distributions can shift because size distributions depend on optical assumptions used during the original run.
How do Microtrac Particle Characterization Software reports differ from HORIBA LA Series reporting workflows?
Microtrac Particle Characterization Software generates per-sample PDFs from stored run metadata used for analysis results. HORIBA LA Series supports batch reporting that ties size calculations to instrument method inputs and adds audit-aware traceability for actions during analysis sessions.
How does Analysette Software support file-based downstream documentation in routine particle size workflows?
Analysette Software runs method-driven analysis for dispersion and optical parameter handling and then generates outputs for review and export. It supports spreadsheet-oriented exports such as CSV and XLS so lab documentation can pull numeric distributions and calculated metrics into existing reporting systems.
Where does CellProfiler fall short compared with instrument control suites for laser diffraction workflows?
CellProfiler centers on image analysis pipelines and does not provide an instrument-centric method workflow for laser diffraction acquisition steps. For labs that require tight pairing between instrument-driven runs and D10 to D90 summaries, LS 13 320 Software and HORIBA LA Series better match the measurement-to-report structure.
Which tool is best suited for parameter-tracked PSD review when raw scattering exports are already available?
Particle Insight fits labs that start from raw measurement exports because it imports common laser diffraction and scattering outputs and then performs repeatable steps such as background subtraction. It recalculates distributions with consistent parameter tracking for cross-lab comparisons and audit use.
What integration risk appears when multi-instrument labs depend on exported spreadsheets instead of a shared data model?
ImageJ and Fiji both export results tables and spreadsheet-ready outputs, but they differ in how upstream method metadata and assumptions are represented in the exported artifacts. BeNano and Particle Insight reduce that risk by keeping calculation settings linked to runs during batch processing, which helps maintain consistent assumptions across instrument sources.

Tools reviewed

Primary sources checked during evaluation.

Referenced in the comparison table and product reviews above.

How to Choose the Right Particle Size Analysis Software

Analysts choose particle size analysis software based on how their measurement files turn into decisions. The biggest separator is usually Data export fidelity, followed by the Configuration management behind repeatable runs.

Data export fidelity

Why it matters

Data export fidelity matters when you need raw outputs and summary results to reconcile across instruments, days, or labs. If exports omit key outputs or lock formats, your comparisons get shaky.

How to check

Run a sample and export both the raw results and the summary outputs. Then confirm the export contains the same numeric results you see in the review screen, not just plots.

Method repeatability controls

Why it matters

Method repeatability controls protect consistency when different operators run similar samples. For particle size analysis, small setting changes can shift distributions, so repeatability controls are critical.

How to check

Try creating a saved run method and execute it twice with the same sample lot. Ask whether the software locks method settings per run and whether it records changes with each result.

Distribution quality review tools

Why it matters

Distribution quality review tools help analysts spot when a result is unreliable before reporting. Clear checks reduce the chance of accepting an artifact as a real particle size shift.

How to check

Open a previously analyzed sample and locate the built-in quality indicators or review plots. Ask how the software flags issues like inconsistent scattering behavior and what evidence it shows to support that flag.

Instrument import and file handling

Why it matters

Instrument import and file handling determine whether you can ingest your existing measurement outputs. If imports are brittle, you lose work history or spend time re-exporting from instruments.

How to check

Bring a sample file from your instrument workflow and attempt import. Verify the software preserves metadata you rely on (sample ID, run info, measurement settings) and that it maps results into the expected views.

Batch automation and workflow

Why it matters

Batch automation and workflow raises throughput without losing traceability across many runs. It also reduces operator variability in how results are processed and reviewed.

How to check

Set up a batch using a small folder of prior exports or demo files. Confirm you can apply the same method, run the processing steps automatically, and generate comparable outputs per sample.

Admin governance for run access

Why it matters

Admin governance for run access matters when multiple analysts collaborate and results must be attributable. If permissions and activity history are weak, you can’t confidently trace who changed methods or reprocessed outputs.

How to check

On a demo, request role-based access controls and check whether method changes and reprocessing events are recorded. Ask how an admin reviews activity history for a specific run or sample.

Red flags

  • Exports miss the raw numeric outputs shown in the review view
  • Saved methods can change silently between runs
  • Quality indicators don’t show evidence or cannot be audited per sample

Fit by situation

  • If you need to reconcile results across labs and time, prioritize Data export fidelity.
  • If multiple analysts run batches from day to day, prioritize Batch automation and workflow.
  • If your team shares methods and must track responsibility, prioritize Admin governance for run access.
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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