GITNUXSOFTWARE REVIEW
Art DesignTop 9 Best Speaker Box Design Software of 2026
Compare speaker box design software tools for cabinet modeling, acoustics, and layout planning, aimed at builders choosing the right workflow.
How we ranked these tools
Vendors set the topic, but our editors set the inclusion criteria and the evaluation framework before research starts.
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Framework: Features 40% · Ease 30% · Value 30%
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DiffraktLAB is the best pick for builders who iterate baffle geometry with more physics in the loop, since its integrated diffraction simulation updates enclosure behavior as you change shapes, while Boxsim is the right alternative when you want quick enclosure tuning and response predictions with baffle-step and diffraction compensation in the same workflow.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
DiffraktLAB
Integrated diffraction simulation for baffle geometry changes during enclosure iteration.
Best for: Fits when builders want diffraction-aware baffle iteration plus fabrication-ready panel outputs.
Boxsim
Editor pickBaffle-step and diffraction compensation options that modify the predicted frequency response within the enclosure simulation workflow.
Best for: Fits when enclosure tuning and response prediction need fast iteration before mechanical cabinet design.
SoundEasy
Editor pickTuning and enclosure calculation workflow stays integrated with driver parameters for rapid what-if changes.
Best for: Fits when cabinet tuning iteration matters most and CAD refinement happens elsewhere.
Comparison Table
DiffraktLAB
vertical specialistDesktop speaker engineering app with analytical simulation, cabinet analysis, crossover design, and BEM/FEM solver integration.
Integrated diffraction simulation for baffle geometry changes during enclosure iteration.
DiffraktLAB targets speaker-builders who need cabinet geometry workflow plus acoustics simulation in one place. Its core strength is an integrated diffraction simulation path that feeds practical enclosure and baffle modeling iterations.
It also supports practical outputs like cabinet panel cut data exports that align with CNC-centric fabrication workflows. The tool is geared toward repeatable design iterations rather than a manual toolchain split across separate apps.
- +Diffraction simulation is integrated into the speaker design workflow
- +Geometry to fabrication-oriented panel cut outputs reduce hand translation
- +Iterative enclosure and baffle changes stay in one modeling environment
- +Crossover and response comparisons are designed around acoustics prediction loops
- –Workflow relies on consistent input conventions to avoid simulation mismatches
- –Advanced enclosure types and alignment variants are less comprehensive than CAD-first toolchains
- –CAD interoperability depends on exchange formats and can limit parametric edits
- –Complex project organization needs manual discipline as designs grow
DIY speaker builders
Iterate baffle geometry with diffraction checks
More consistent enclosure iterations
CNC-focused cabinet makers
Export panel geometry for milling
Cleaner cut planning
Show 1 more scenario
Small R&D audio teams
Compare enclosure revisions in one loop
Faster design convergence
Use simulation-fed geometry iterations to evaluate multiple enclosure configurations without switching tools.
Best for: Fits when builders want diffraction-aware baffle iteration plus fabrication-ready panel outputs.
Boxsim
vertical specialistBoxsim simulates Visaton loudspeaker drivers, cabinet alignments, crossovers, and frequency response.
Baffle-step and diffraction compensation options that modify the predicted frequency response within the enclosure simulation workflow.
Boxsim uses a driver database and lets builders assemble systems from drivers and enclosure types, then calculates frequency response and impedance curves from the entered Thiele-Small and related parameters. It supports port and driver air loading assumptions through enclosure configuration settings, and it includes diffraction and baffle-step related compensation options that affect the predicted response. The workflow supports exporting simulation data for review and using repeated parameter edits to compare variants side by side.
A key tradeoff is that Boxsim does not replace mechanical design tools for panel cut lists or detailed cabinet geometry, so CNC-ready exports are not the center of the workflow. Builders often use it after choosing a driver and rough alignment, then iterate on enclosure volume, tuning, and damping assumptions to converge on target response and impedance behavior before moving to CAD or fabrication.
- +Driver database plus enclosure configuration produces repeatable response and impedance comparisons
- +Baffle and diffraction compensation options directly affect the predicted on-axis curve
- +Port and tuning inputs connect alignment changes to impedance behavior
- +Variant iteration supports quick what-if tuning across enclosure assumptions
- –Cabinet cut lists and detailed panel geometry outputs sit outside the Boxsim workflow
- –High-accuracy results depend on careful consistency of driver parameters and damping assumptions
Speaker builders and tinkerers
Tune bass-reflex alignment to target response
Fewer iterations to a viable alignment
Design engineers for DIY projects
Compare multiple enclosure types quickly
Clear tradeoffs in response shape
Show 1 more scenario
Shop-floor spec checkers
Validate port tuning assumptions early
Reduced risk of mismatched tuning
Use the impedance prediction to confirm that the chosen tuning behavior matches expectations.
Best for: Fits when enclosure tuning and response prediction need fast iteration before mechanical cabinet design.
SoundEasy
vertical specialistWindows-based loudspeaker design suite for enclosure, crossover, and measurement tasks.
Tuning and enclosure calculation workflow stays integrated with driver parameters for rapid what-if changes.
SoundEasy supports standard loudspeaker modeling workflows that start from driver parameters and proceed through enclosure and tuning calculations. The software centers on impedance- and frequency-related design outputs that help validate whether a given box approach will behave as expected. SoundEasy also provides enclosure sizing and alignment assistance that reduces manual spreadsheet translation during iterative design.
A key tradeoff is weaker CAD-to-fabrication depth than Fusion or Onshape because cabinet geometry refinement and constraint modeling are not its main strength. SoundEasy fits best when the project focus is tuning and enclosure parameter iteration, then passing the cabinet geometry to a separate CAD tool for detailed cut lists and panel-level adjustments.
- +Enclosure alignment calculations stay connected to driver parameter inputs
- +Impedance and response predictions support faster enclosure iteration loops
- +Outputs are practical for moving designs into cabinet documentation steps
- +Workflow keeps loudspeaker math and geometry decisions in one place
- –CAD constraint modeling depth lags Fusion and Onshape for complex cabinets
- –Advanced enclosure types and prediction detail may need careful setup discipline
- –Export formats do not replace full-featured parametric cabinet CAD work
- –Large driver library usage can slow review cycles during iteration
Independent speaker builders
Iterate box volume and tuning quickly
Faster alignment convergence
DIY design teams
Standardize enclosure decisions across builds
Less design drift
Show 1 more scenario
Small workshops
Bridge from modeling to fabrication files
Reduced rework
SoundEasy provides export pathways so cabinet geometry and results can be carried into downstream CAD documentation.
Best for: Fits when cabinet tuning iteration matters most and CAD refinement happens elsewhere.
Basta!
vertical specialistBasta! models loudspeaker drivers, enclosure alignments, ports, and acoustic response.
A speaker-specific driver-to-enclosure workflow that updates cabinet geometry and panel documentation from driver and alignment inputs.
Basta! performs cabinet and baffle layout design for speaker enclosures, linking measured driver parameters to a geometry-driven cut list workflow. The workflow centers on using driver databases, generating enclosure geometry for common alignments, and producing panel documentation for fabrication.
- +Driver-parameter driven enclosure generation keeps geometry consistent across iterations
- +Panel and cut list outputs support fabrication handoff without manual redraw cycles
- +Alignment-based enclosure workflows reduce design branching during early cabinet drafts
- +3D model exchange supports downstream checking and enclosure documentation
- –Less flexible parametric editing than history-based CAD for custom geometries
- –Automation depth for bulk variant generation is limited compared to CAD scripting workflows
Speaker builders, audio engineers
Size sealed box volume and driver fit
Repeatable sealed-box alignment
Loudspeaker designers, shops
Tune bass-reflex port geometry
Vented spec with tuning
Show 2 more scenarios
Small manufacturers, freelancers
Compare enclosure variants quickly
Comparable variant decisions
Recalculate alternative volumes, alignments, and ports while reusing the same design workflow and inputs.
Crossover designers, engineers
Iterate passive network with enclosure context
Practical crossover for build
Develop multi-way passive networks while checking component choices against impedance and acoustic response.
Best for: Fits when cabinet cut lists and enclosure geometry need repeatable driver-driven revisions for small shops.
BassBox Pro
vertical specialistBassBox Pro calculates loudspeaker enclosure alignments, response, and construction dimensions.
Built-in driver database combined with enclosure alignment prediction for fast what-if iteration across tuning and volume.
BassBox Pro is a speaker cabinet design tool that centers its workflow on driver and enclosure parameter modeling with a built-in driver database. It supports multiple enclosure alignments for bass-reflex, sealed, and other common box types, then predicts impedance and frequency-response behavior using Thiele-Small inputs.
- +Driver database plus Thiele-Small parameter entry streamlines enclosure modeling
- +Impedance and frequency-response prediction supports quick alignment iteration
- +Box sizing controls make it practical to converge on tuning targets
- +Covers common enclosure families for typical speaker-builder workflows
- –Crossover design tooling stays limited compared with full electro-acoustic design suites
- –CNC export and DXF or STEP workflows are not the primary strength
DIY audio builders
Model sealed and bass-reflex options
Quick alignment selection
Speaker design technicians
Iterate volume and tuning targets
Faster parameter iteration
Show 1 more scenario
Small fabrication teams
Convert alignment results to geometry
Builder-ready cabinet dimensions
Use alignment outputs to produce practical cabinet geometry steps that feed cut-list and fabrication workflows.
Best for: Fits when builders need rapid enclosure alignment iteration from driver parameters without full CAD workflow.
00 Simulator
vertical specialistBrowser-based loudspeaker enclosure simulator supporting sealed, ported, bandpass, and passive radiator designs.
Speaker-box parameter modeling stays tightly linked to geometry outputs for rapid alignment iteration.
00 Simulator targets the cabinet modeling loop where Thiele-Small inputs and enclosure dimensions drive predicted results.
- +Fast sealed and bass-reflex iteration from driver and volume inputs
- +Predictive plots for impedance behavior and frequency-response comparisons
- +Geometry-driven workflow keeps alignment changes tightly coupled
- +Exportable cabinet outputs support fabrication planning
- –Limited enclosure variety versus full multi-topology simulators
- –Advanced modeling steps require careful manual setup discipline
- –Fewer crossover workflow primitives than schematic-first tools
- –CAD export fidelity can lag behind dedicated mechanical modelers
Speaker designers
Compare sealed alignment what-ifs
Better alignment decisions
Enclosure tuning engineers
Evaluate bass-reflex ported setups
Faster tuning refinement
Show 1 more scenario
Independent acoustics consultants
Rapid iteration on one cabinet concept
Less tool switching
Keep the workflow inside one interface to refine a single cabinet design through repeated what-if edits.
Best for: Fits when builders need rapid cabinet alignment checks with repeated parameter edits.
SpeakerDesign.dev
vertical specialistWeb-based toolkit for enclosure simulation, 3D box calculation, and plywood cut-list optimization.
A tuning-to-dimensions workflow that maps enclosure and port parameters into builder-ready measurements.
SpeakerDesign.dev focuses on turning speaker box inputs into enclosure geometry and builder-ready outputs, with a workflow centered on parameter-based tuning rather than manual drafting. It supports sealed and bass-reflex style design, where enclosure volume and port-related parameters feed back into predicted acoustic behavior and dimensional results. The project stays practical for cabinet modeling, because it pairs numeric design inputs with cut-list style dimension reporting instead of only simulation graphs.
- +Parameter-driven enclosure dimensions tied to acoustic predictions
- +Clear workflow from driver inputs to enclosure and port geometry
- +Exporter-friendly dimension reporting for cabinet fabrication planning
- +Fast iteration for alignment changes without redesigning the whole model
- –Limited coverage outside sealed and bass-reflex enclosure types
- –Port air velocity and airflow checks are not detailed enough for high-precision builds
- –Less control over panel-level modeling details than CAD tools
- –Crossover and enclosure DSP workflow depth is narrower than dedicated acoustic suites
DIY speaker builders
Generate cut-list dimensions for sealed boxes
Builder-ready enclosure values
Loudspeaker designers
Model bass-reflex volume and port parameters
Consistent port alignment
Show 1 more scenario
Small workshops
Replace manual drafting with parameter inputs
Fewer drafting mistakes
Use parameter-based tuning so design inputs drive geometry and cut-list style dimension outputs.
Best for: Fits when sealed or bass-reflex cabinet modeling needs repeatable tuning and dimension outputs.
Micka Loudspeaker Enclosure Calculator
vertical specialistOnline loudspeaker enclosure calculator using Thiele-Small parameters for vented and closed box designs.
Type-specific enclosure calculations that update directly from driver parameters across sealed and bass-reflex style designs.
Micka Loudspeaker Enclosure Calculator focuses on enclosure sizing around driver and alignment inputs, with results that update as parameters change. It supports multiple enclosure types and includes core calculations used for speaker-box design workflows like volume selection, port tuning, and performance curves.
- +Rapid enclosure recalculation when Thiele-Small inputs change
- +Handles common alignment workflows across several cabinet types
- +Calculations prioritize port and enclosure sizing outputs for iteration
- +Generates impedance and frequency-response style results for validation
- –Limited mechanical output compared with cabinet CAD tools
- –Requires consistent driver data and unit discipline to avoid errors
- –Crossover design and enclosure-to-woofer integration are not its core focus
- –No built-in CNC-ready panel cut list workflow
DIY speaker builders
Choose enclosure volume from driver inputs
Correct volume selection
Speaker alignment planners
Tune port dimensions for bass-reflex
More accurate tuning values
Show 1 more scenario
Acoustics hobbyists
Validate alignment choices
Fewer late build changes
Use updated calculations to compare multiple enclosure types and confirm design numbers before building.
Best for: Fits when quick cabinet alignment checks are the primary goal, not CAD cut lists or fabrication exports.
Term-PRO
vertical specialistProfessional subwoofer enclosure design software with 3D CAD, blueprint generation, and CNC export.
Parameter-first cabinet layout generation that keeps panel dimensions and port geometry consistent across revisions.
Term-PRO generates speaker cabinet panel layouts and 3D geometry from enclosure parameters, then turns those results into fabrication-ready drawings.
- +Panel cut lists derive directly from enclosure dimensions and driver inputs
- +Cabinet layout workflow stays parameter-driven instead of sketch-driven
- +Port and baffle geometry updates propagate through model changes
- +Outputs support fabrication handoff with consistent panel alignment
- –Crossover and advanced acoustic prediction workflows are limited versus full acoustic suites
- –Complex enclosures need extra steps compared with general CAD tools
- –Fewer geometry editing tools than Fusion or Onshape-style direct modeling
- –STEP import or reference geometry support can lag behind CAD-focused workflows
Cabinet fabrication shops
Generate panel layouts for each revision
Repeatable revision outputs
Speaker builders
Create cut-lists from Thiele-Small inputs
Fewer manual measurements
Show 1 more scenario
Small OEM loudspeaker teams
Produce 3D models and drawings together
Lower rework rate
Generate 3D geometry plus fabrication drawings from one set of enclosure parameters to reduce mismatches.
Best for: Fits when repeatable cabinet panel layouts are needed from Thiele-Small inputs with fabrication-focused outputs.
Conclusion
After evaluating 9 speaker box design software, DiffraktLAB 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.
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 Speaker Box Design Software
Speaker box design software turns driver parameters and enclosure choices into predicted impedance and frequency-response behavior, then connects those results to mechanical cabinet dimensions. This guide covers Boxsim, SoundEasy, LEAP, BassBox Pro, Basta!, DiffraktLAB, Micka Loudspeaker Enclosure Calculator, SpeakerDesign.dev, Term-PRO, and 00 Simulator.
The sections after each tool review focus on how quickly enclosure tuning changes propagate into geometry outputs, and how much of the workflow stays inside the same tool. Boxsim leads for enclosure simulation iteration with baffle-step and diffraction compensation, while SoundEasy and LEAP emphasize keeping driver and enclosure inputs tightly connected during revisions.
Speaker Box Design Software for enclosure simulation, panel cut lists, and revision control
Speaker box design software supports Thiele-Small parameter-based enclosure modeling and produces tuning-driven outputs like predicted impedance curves and frequency-response plots. Tools such as Boxsim and BassBox Pro combine driver database inputs with enclosure alignment prediction to support fast what-if iteration across tuning and volume.
A practical speaker box workflow also depends on how the software links acoustic assumptions to mechanical outputs. Boxsim stays focused on enclosure simulation and applies baffle-step and diffraction compensation inside the enclosure prediction loop, while LEAP is built around parametric enclosure changes that propagate into build-document style outputs to reduce rework between revisions.
Enclosure simulation depth, parameter wiring, and fabrication outputs
Speaker box design software is only useful when driver inputs, enclosure alignment math, and enclosure geometry stay consistent from revision to revision. The tools in this list differ most in how tightly that acoustic workflow stays connected to what becomes a cut list or a build document.
The fastest iteration comes from tools that keep enclosure configuration changes in the same modeling workflow that produces impedance and frequency-response predictions. The most efficient handoff comes from tools that produce panel and cut outputs from the same parameter set that generated the tuning curves.
Compensation controls inside the enclosure prediction loop
Boxsim adds baffle-step and diffraction compensation options directly within its enclosure simulation workflow so predicted response changes reflect acoustic effects tied to geometry.
Integrated driver-to-enclosure iteration workflow
SoundEasy keeps tuning and enclosure calculation connected to driver parameter inputs, which speeds what-if changes before moving into CAD-heavy cabinet refinement.
Parametric revision propagation into build-document outputs
LEAP propagates enclosure configuration changes through geometry and build-document style outputs so revisions reduce manual re-measurement between iterations.
Driver database plus enclosure alignment prediction
BassBox Pro combines a built-in driver database with enclosure alignment prediction so enclosure alignment iteration starts from driver parameters without translating inputs across tools.
Driver-driven panel and cut-list generation
Basta! updates cabinet geometry and panel documentation from driver and alignment inputs so cut lists stay consistent with the enclosure tuning inputs.
Diffraction-aware baffle iteration with fabrication-oriented panel outputs
DiffraktLAB integrates diffraction simulation into the speaker design workflow and outputs panel cuts oriented toward fabrication translation.
Pick a workflow philosophy: acoustic-first, revision-first, or fabrication-first
Speaker box design software tools differ in where they place the “source of truth” between acoustics and mechanics. Some tools keep the acoustic prediction loop as the center of gravity, while others make enclosure configuration parameters drive geometry and fabrication outputs.
The decision framework below starts with iteration speed and ends with what must leave the software as fabrication-ready dimensions. Each step asks for a concrete workflow outcome like geometry-driven revisions, diffraction-aware baffle iteration, or panel cut list generation.
Choose the model center: compensation-aware prediction or driver-driven alignment
If the enclosure prediction must account for baffle-step and diffraction effects as part of the same workflow, Boxsim fits cabinet tuning iteration where predicted on-axis behavior needs geometry-tied compensation. If driver parameter changes must stay tightly wired into enclosure alignment and impedance prediction during what-if iteration, SoundEasy supports that loop without breaking input consistency.
Decide how revisions should move through outputs
If revisions must propagate into geometry and build-document style outputs without manual re-measurement, LEAP supports a revision-first enclosure process. If the main goal is rapid enclosure alignment iteration from driver parameters before CAD refinement handles the mechanical detail, BassBox Pro focuses the workflow on enclosure prediction.
Match fabrication handoff needs to cut-list generation strength
If cabinet cut lists and panel documentation must update from driver and alignment inputs in repeatable iterations, Basta! matches that fabrication handoff workflow for small shops. If diffraction-aware baffle iteration must end with fabrication-oriented panel cut outputs, DiffraktLAB fits a diffraction-first geometry workflow.
Check enclosure scope and output expectations for sealed and bass-reflex only
For sealed and bass-reflex focused modeling where tuning maps into builder-ready measurements, SpeakerDesign.dev provides a tuning-to-dimensions workflow that stays clear about its scope. For fast enclosure alignment checks with predictable sealed and bass-reflex style calculations where mechanical output is not the primary need, Micka Loudspeaker Enclosure Calculator emphasizes recalculation speed.
Avoid tool friction when the project includes CAD-first cabinet hardware
If the cabinet hardware design is mechanically complex and needs CAD-first editing, LEAP still expects an enclosure-first process and may require CAD outside the enclosure tool for hardware. If advanced multi-topology coverage and enclosure variety beyond common types are the priority, 00 Simulator and other lighter simulators may require extra manual setup discipline due to limited enclosure variety.
Who benefits from each Speaker Box Design Software workflow
Speaker box design software fits teams and individual builders who need repeatable tuning-to-dimensions outcomes rather than isolated plots. The right tool depends on whether the work bottleneck is acoustic iteration, geometry revision consistency, or fabrication cut-list generation.
The segments below map real workflow differences from the tool cards to the people who feel those differences most during enclosure design.
Cabinet designers who need baffle-step and diffraction compensation inside tuning iteration
Boxsim fits when enclosure simulation must include baffle-step and diffraction compensation options that directly modify the predicted frequency response during enclosure modeling.
Builders who iterate driver parameters frequently before touching CAD
SoundEasy fits when the enclosure calculation workflow stays integrated with driver parameters so impedance and response predictions support fast enclosure iteration loops.
Small teams that manage enclosure variants across many revisions
LEAP fits when parametric enclosure iterations must propagate into geometry and build-document outputs so teams avoid manual re-measurement after each revision.
Shops that need panel cut lists tied to driver-driven enclosure geometry
Basta! fits when driver-to-enclosure updates must keep cabinet cut lists and panel documentation consistent across revisions without manual redraw cycles.
Builders who want diffraction-aware baffle changes plus fabrication-ready panel outputs
DiffraktLAB fits when diffraction simulation runs during enclosure iteration and the workflow ends with geometry-to-fabrication oriented panel cut outputs.
Common failure modes when acoustic predictions and mechanical outputs diverge
Speaker box design software errors usually come from mismatched assumptions between the acoustic workflow and the mechanical workflow. The tools in this list show specific limits and specific dependencies that can break consistency if the workflow expectations do not match the tool design.
Using enclosure compensation controls without maintaining consistent driver and damping assumptions
Boxsim’s baffle-step and diffraction compensation options can materially change predicted response, so inconsistent driver parameters or damping assumptions will mislead the iteration loop.
Treating CAD constraint depth as an enclosure tool feature
SoundEasy keeps tuning and enclosure calculations integrated with driver parameters, but CAD constraint modeling depth lags Fusion and Onshape for complex cabinets, so mechanical constraint work needs a CAD tool.
Expecting an enclosure-first tool to replace full CAD for mechanically complex hardware
LEAP supports parametric enclosure revision propagation, but mechanically complex cabinet hardware design still needs CAD outside LEAP when the enclosure workflow is not enough for hardware.
Relying on a limited mechanical output tool for fabrication-grade details
Micka Loudspeaker Enclosure Calculator focuses on type-specific enclosure calculations with limited mechanical output, so cabinet CAD or a cut-list workflow is still required for fabrication-ready geometry.
Assuming every tool handles diffraction-aware baffle iteration equally
DiffraktLAB integrates diffraction simulation, while other tools may provide faster iteration but less comprehensive diffraction-aware coverage, so baffle-specific predictions should match the tool’s workflow design.
How We Selected and Ranked These Tools
We evaluated speaker box design software by prioritizing enclosure simulation depth and the ability to keep predicted response tied to the enclosure configuration that produces the geometry. Features accounted for 40% of the score to reflect how driver database inputs, enclosure alignment prediction, and compensation or simulation options support enclosure tuning iteration.
Ease and value each accounted for 30% to reflect how quickly users can run revisions from driver and enclosure parameters into usable outputs. Boxsim led the ranking because its baffle-step and diffraction compensation options modify the predicted frequency response inside the enclosure simulation workflow, and its driver database plus enclosure configuration enables repeatable response and impedance comparisons.
Frequently Asked Questions About Speaker Box Design Software
How do Fusion-style CAD workflows differ from Boxsim when the goal is speaker box alignment prediction?
Which tools support fast enclosure tuning iteration without requiring a full mechanical cabinet modeling step?
Which software handles enclosure diffraction-aware baffle iteration inside the same workflow?
What breaks if driver parameters drift between iterations in Boxsim-style prediction workflows?
When does a builder need CNC-oriented outputs instead of only simulation plots?
How do SoundEasy and LEAP support repeatable what-if changes without manual re-measurement?
Where does FreeCAD-style CAD export fit compared with SpeakerDesign.dev output requirements?
What data migration problems show up when moving an existing driver database and alignments into these tools?
How can admin control and RBAC matter in a multi-user enclosure design process using these tools?
Tools reviewed
Primary sources checked during evaluation.
Referenced in the comparison table and product reviews above.
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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