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Science ResearchTop 10 Best Fluid Power Simulation Software of 2026
Ranked shortlist of the top 10 fluid power simulation software, covering Modelon Impact, OpenModelica, and Automation Studio with key tradeoffs for teams.
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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Modelon Impact is the best fit when your team runs system-level fluid power design with controllers and needs equation-accurate integration across components, whereas OpenModelica suits teams that want a Modelica equation workflow they can reuse for fluid behavior modeling.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
Modelon Impact
Built-in fluid power library for valve, pump, and motor dynamics that couples directly to mechanical and control models via Modelica.
Best for: Fits when teams run system-level hydraulic designs with controllers and need equation-level integration across components.
OpenModelica
Editor pickModelica compilation and equation-based execution for complex coupled physical models, enabling reusable library-driven fluid abstractions.
Best for: Fits when teams need a Modelica equation workflow for system-level fluid power behavior modeling and reuse.
Automation Studio
Editor pickScenario and run management that ties configuration variants to simulation outputs inside a single project workflow.
Best for: Fits when teams run many design variants and want repeatable simulation workflows with controlled configuration changes.
Comparison Table
Modelon Impact
enterpriseCloud-based system simulation software using Modelica-based multi-domain engineering models.
Built-in fluid power library for valve, pump, and motor dynamics that couples directly to mechanical and control models via Modelica.
Modelon Impact targets engineers who need 1D fluid power modeling at system level, where lumped-parameter hydraulics and component-level library elements interact inside differential-algebraic equation solving. The model structure stays consistent from hydraulic components through mechanical loads and controllers because everything lives in the Modelica ecosystem. A documented integration and model exchange workflow helps teams reuse component libraries and move models across boundaries without rebuilding from scratch. The common fit signal is a Modeling workflow that already uses Modelica and expects long-lived system models rather than one-off plant studies.
A tradeoff is that advanced hydraulics detail can increase model build time and solver tuning effort for stiff transients like cavitation, surge, or water-hammer scenarios. Modelon Impact fits best when a team must iterate on actuator sizing and valve selection under transient loads, then connect results to mechanical and control behavior in the same simulation run.
- +Modelica-first workflow keeps fluid, mechanics, and control in one equation system
- +Transient hydraulics modeling supports compressibility effects and dynamic response
- +Library-driven component modeling speeds system-level hydraulic architecture
- +Model exchange supports interoperability via FMI model exchange
- –High-detail transients can require solver and model tuning discipline
Hydraulic design engineers
Valve and actuator sizing loop
Sizing decisions backed by dynamics
Controls engineers
Controller-in-the-loop hydraulic tuning
Controllers tuned on realistic hydraulics
Show 2 more scenarios
Powertrain system integrators
Pump motor and load coupling
Cycle simulation with integrated response
System models connect pump and motor characteristics to mechanical loads and drive cycles for performance checks.
Simulation platform teams
Automated model build and export
Repeatable runs for variant studies
Teams use automation hooks to assemble model variants and run export workflows for downstream analysis.
Best for: Fits when teams run system-level hydraulic designs with controllers and need equation-level integration across components.
OpenModelica
API-firstOpen-source Modelica environment for equation-based modeling and simulation of physical systems.
Modelica compilation and equation-based execution for complex coupled physical models, enabling reusable library-driven fluid abstractions.
Engineers use OpenModelica to run transient simulation of lumped-parameter models expressed in Modelica and to iterate on Modelica component libraries for actuator and control studies. It fits teams that already work in Modelica models, or teams that want a single equation-based modeling workflow spanning physical domains and custom fluid component equations. A practical fit signal is the ability to compile Modelica models into runnable simulation artifacts and to manage large model structures through the Modelica language.
The main tradeoff is that fluid power model fidelity depends on how the underlying Modelica component library represents hydraulics and compressibility effects. It works best when the modeling goal is system-level behavior from well-defined component equations, and it can be harder to plug into an existing hydraulic library that is written in a different modeling language. A common usage situation is integrating a custom valve or pump behavior model into a larger control system simulation and refining the equations until results match target pressure and flow dynamics.
- +Modelica-based equation compilation supports reusable component libraries.
- +Transient simulation for coupled physical networks with strong numerical solving.
- +Model execution and debugging follow the Modelica modeling workflow.
- +Good fit for custom component equations beyond fixed hydraulic primitives.
- –Fluid power library coverage depends on available Modelica components.
- –Advanced numerical tuning can be harder for teams used to GUI solvers.
Model-based controls engineers
Controller tuning with custom fluid components
Shortens control iteration loops
Fluid power R&D teams
Actuator sizing with custom valve equations
Improves sizing and robustness
Show 1 more scenario
Systems engineers building libraries
Reusable component library for hydraulic subsystems
Reduces model rebuild effort
Encapsulates pressure-flow behaviors in Modelica models and reuses them across multiple topologies.
Best for: Fits when teams need a Modelica equation workflow for system-level fluid power behavior modeling and reuse.
Automation Studio
vertical specialistEngineering software for hydraulic, pneumatic, electrical, and control-system design and simulation.
Scenario and run management that ties configuration variants to simulation outputs inside a single project workflow.
Automation Studio works well when fluid power engineers need repeated simulations across design variants for valve sizing, actuator sizing, and control tuning studies. It provides a structured project workflow that keeps configuration changes traceable across runs, which reduces friction when the same system needs multiple parameter sets. Component-level models and system-level assemblies can be combined into simulation projects that support both steady-state operating points and transient behavior.
A tradeoff appears in automation depth, because complex custom orchestration depends on learning the tool’s automation constructs and connecting them to external tooling when deeper integration is needed. Automation Studio is a strong fit when engineering teams run many near-identical simulations, such as compressible flow effects and leakage parameter sweeps, while a lighter fit applies when only a single system study is needed.
- +Scenario-driven simulation runs for consistent parameter sweeps
- +Project workflow supports repeatable steady-state and transient studies
- +Reusable configurations reduce rework across design iterations
- +Results export supports external post-processing pipelines
- –Advanced automation orchestration requires time to learn
- –Deep co-simulation and external controller hooks can depend on integrations
- –Complex model governance needs disciplined configuration management
- –Some workflow customization can be limited versus full scripting stacks
Fluid power design teams
Valve sizing across operating points
Faster convergence on valve selection
Controls engineers
Transient response tuning studies
Reduced iteration cycles
Show 2 more scenarios
Manufacturing engineering analysts
Actuator sizing for duty profiles
Better sizing confidence
Model variants manage duty profile changes while preserving consistent simulation setup.
Systems integrators
Results handoff to analysis tools
Less manual data handling
Exported outputs feed external analysis for charts, constraints checks, and reporting workflows.
Best for: Fits when teams run many design variants and want repeatable simulation workflows with controlled configuration changes.
Simscape Fluids
enterprisePhysical modeling software for hydraulic, thermal-liquid, and gas systems within the Simulink environment.
Simscape language models tie directly into Simulink signals so controllers can interact with fluid states during transient runs.
Simscape Fluids combines physical modeling and simulation for hydraulic system simulation with tight coupling to MATLAB and Simulink workflows. The toolset uses component libraries for fluid components and generates equations that support transient simulation, including compressibility effects and pressure dynamics.
- +Simulink-linked workflow makes controller and plant co-simulation straightforward
- +Component-level fluid blocks reduce equation assembly time for common hydraulics
- +Transient behavior can be simulated with compressibility-aware dynamics
- +Parameter-driven models make design-space sweeps practical
- –Large models can become numerically stiff without solver tuning
- –Library coverage depends on available component parameterizations for specific hardware
- –Custom component development requires Simscape language and disciplined port definitions
- –High-fidelity thermal-fluid coupling is limited compared with specialized tools
Best for: Fits when teams need Simulink-based controller studies driven by detailed hydraulic component dynamics.
GT-SUITE
enterpriseMulti-domain simulation software covering fluid flow, thermal systems, controls, and mechanical systems.
Transient-focused equation solver and component behavior modeling for fluid networks used in dynamic performance and wave propagation studies.
GT-SUITE from GTI Software runs hydraulic and pneumatic system simulation with 1D fluid power modeling that links components into solvable network equations. Engineers use it for transient simulation of pressure waves, actuator motion studies, and sizing iterations across valves, pumps, and compressors.
- +Strong dynamic behavior for pressure transients in fluid networks
- +Component libraries support valve, pump, and actuator sizing workflows
- +Co-simulation model exchange helps connect external controller or plant models
- +Equation-based modeling supports steady-state and transient analysis
- –Large models can require careful setup of initial conditions
- –Model exchange and co-simulation setup can slow iteration loops
- –Advanced workflows depend on library familiarity and parameter discipline
- –Debugging solver issues often needs deeper numerical understanding
Best for: Fits when engineering teams need transient-focused fluid system simulation for sizing and dynamic validation.
DSHplus
vertical specialistSimulation software for hydraulic systems, fluid transmission lines, and pressure-wave analysis.
Transient simulation workflow with tunable solver control helps maintain stability during fast valve switching events.
DSHplus is used for fluid power simulation work where engineers need a dedicated workflow for building hydraulic or pneumatic system models and running steady-state and transient analyses. The tool focuses on 1D fluid power modeling with component-level libraries that support system-level lumped-parameter behavior and repeatable studies.
- +Structured component library supports fast assembly of 1D system schematics
- +Transient runs capture dynamic effects needed for valve and actuator studies
- +Parameter sweeps make design iteration repeatable across operating points
- +Solver settings offer control over numerical behavior during difficult transients
- –Model setup can require careful initial conditions for stable transients
- –Automation and API surface are limited for large scripted model generation
- –Co-simulation tooling is not a primary strength compared with higher-ranked tools
- –Library coverage can lag for niche components without custom model work
Best for: Fits when teams run frequent hydraulic or pneumatic design iterations in-house using controlled 1D models.
Modelica Fluid Library ecosystem
API-firstModelica standard modeling environment with fluid power and thermal-fluid modeling components used for DAE-based simulations.
Deep reuse of Modelica library components for hydraulics and thermal-fluid coupling, with connectors that scale from component tests to system-level assemblies.
Modelica Fluid Library ecosystem on modelica.org differentiates itself through a Modelica-first 1D fluid power modeling workflow built around reusable library components. The ecosystem targets differential-algebraic equations for both hydraulic and thermal-fluid coupling use cases, while supporting system-level modeling with component-level detail.
- +Reusable Modelica component set supports consistent system assembly
- +DAE-based formulation supports transient and steady-state hydraulic behavior
- +Thermal-fluid coupling modeling is available inside the same library ecosystem
- +FMI-friendly workflow fits controller and co-simulation integration needs
- –Model setup and boundary conditions require careful discipline
- –Library coverage can be narrower than specialist hydraulic toolchains
- –Performance tuning depends on chosen model structure and solver settings
- –Cross-tool interchange requires consistent variable mapping for hydraulics
Best for: Fits when teams need Modelica-native component reuse and transient hydraulic plus thermal coupling in one modeling workflow.
Easy5
enterpriseEngineering analysis tool for multi-domain dynamic systems including hydraulic and pneumatic models.
Easy5’s workflow ties circuit topology to parameterized component behavior so transient iterations stay traceable.
Easy5 from hexagon.com focuses on 1D fluid power simulation with a graphical workflow for building hydraulic and pneumatic circuits from component libraries. The software supports both steady-state and transient behavior modeling, including compressibility-related effects needed for actuator and line dynamics.
- +Graphical circuit assembly that keeps system context attached to each parameter
- +Good transient handling for line and actuator dynamics where steady-state fails
- +Component library coverage supports typical hydraulic and pneumatic architecture
- +Export and integration options support controller and external tool coupling
- –Modeling fidelity depends on component parameterization discipline and correct library selections
- –Advanced automation needs more scripting and integration work than UI-only setups
- –Large circuit models can slow configuration and iteration during parameter sweeps
- –Cross-team governance features are less detailed than systems-focused engineering suites
Best for: Fits when fluid power engineers need repeatable 1D circuit simulations with transient behavior and ecosystem integration.
Siemens Amesim
enterpriseMulti-domain platform for 1D lumped-parameter simulation of fluid power, mechanical, and thermal systems.
Dedicated transient hydraulic modeling that captures compressibility and cavitation effects within system-level networks.
Siemens Amesim turns hydraulic and pneumatic machine behavior into 1D fluid power simulations driven by lumped-parameter component models. The workflow supports system-level modeling for valves, pumps, and actuators, then computes transient and steady-state pressure and flow responses for design sizing and troubleshooting.
- +High-fidelity transient behavior modeling for compressibility and cavitation
- +Large component coverage for pumps, motors, valves, and pipe networks
- +Model exchange options for integrating with external simulation environments
- +Parameter-driven what-if studies for sizing actuators and valves
- –Model assembly and convergence tuning can require solver expertise
- –Advanced automation depends on external integration rather than in-tool scripting
- –Library customization and reuse require disciplined model organization
- –Controller-centric workflows may feel heavier than co-simulation-only stacks
Best for: Fits when teams need accurate transient 1D fluid power simulations with repeatable component-based system models for design and debug.
FluidSIM
vertical specialistCircuit design and simulation software for pneumatic, hydraulic, and electrical training applications.
FluidSIM turns ISO 1219-style pneumatic and hydraulic schematics into executable simulation circuits with interactive feedback for sequencing.
FluidSIM from Festo targets fluid power training and engineering workflows around visually defined hydraulic and pneumatic circuits, then turns those diagrams into solvable simulations. It provides a structured way to model components and connections for steady-state and transient behavior, including compressible effects used in pneumatic work.
- +Diagram-first circuit building maps directly to simulation inputs.
- +Includes pneumatic compressibility behavior for actuator timing studies.
- +Strong fit for Festo component-centric hydraulic and pneumatic workflows.
- +Transient response is suitable for valve switching and sequencing.
- –Limited integration and interchange with external 1D or Modelica toolchains.
- –Advanced customization is constrained compared with more engineering-grade model ecosystems.
- –Solver control and parameter auditing are less granular for large models.
- –Library coverage can become a bottleneck outside Festo-specific components.
Best for: Fits when engineering teams need fast hydraulic and pneumatic simulation iterations from circuit schematics using Festo components.
Conclusion
After evaluating 10 fluid power simulation software, Modelon Impact 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 Fluid Power Simulation Software
Fluid power simulation software helps engineering teams model valve, pump, and motor behavior as coupled fluid and mechanical dynamics rather than as spreadsheet approximations.
This guide covers Modelon Impact, OpenModelica, Automation Studio, Simscape Fluids, GT-SUITE, DSHplus, the Modelica Fluid Library ecosystem, Easy5, Siemens Amesim, and FluidSIM, with practical notes on how each tool shapes modeling workflow, transient accuracy, and integration into wider engineering toolchains.
Modelon Impact leads when a Modelica-first equation workflow is needed to connect fluid hydraulics to mechanical and controller models. Simscape Fluids leads when Simulink-centric co-simulation is the control study driver.
Fluid Power Simulation Software for transient hydraulic and pneumatic 1D system modeling
Fluid power simulation software builds executable models of hydraulic system simulation and pneumatic system simulation from component libraries, circuit schematics, or Modelica equation systems to run both steady-state and transient simulation.
These tools represent pressure and flow dynamics with compressibility and dynamic element behavior and then compute system responses that support valve sizing, actuator timing studies, and dynamic validation.
Modelon Impact targets equation-level integration by coupling fluid valve, pump, and motor dynamics into a Modelica modeling environment alongside control and mechanical equations. Simscape Fluids ties fluid blocks directly into Simulink signals so transient runs can evaluate how controller actions change fluid states during dynamic plant behavior.
What to verify in fluid power simulation workflows
Fluid power simulation software must represent fluid dynamics with component-level behavior so the model can produce pressure and flow responses that track valve, pump, and motor dynamics. The practical test is whether the tool’s modeling primitives connect to the rest of the engineering chain without forcing manual equation rebuilding for every subsystem.
Equation-level coupling across fluid, mechanics, and control
Modelon Impact targets equation-level integration by coupling fluid valve, pump, and motor dynamics into a Modelica modeling environment alongside control and mechanical equations. OpenModelica can support the same Modelica equation workflow through compilation and equation-based execution for reusable component libraries.
Controller co-simulation driven by fluid states in Simulink
Simscape Fluids uses Simscape language models that tie directly into Simulink signals so controllers can interact with fluid states during transient simulation. DSHplus focuses on a transient workflow with tunable solver control for stability during fast valve switching events, which can matter when controller timing stresses the hydraulics.
Transient hydraulics fidelity for compressibility and dynamic response
Siemens Amesim is built around dedicated transient hydraulic modeling that captures compressibility and cavitation effects in system-level networks. GT-SUITE emphasizes transient-focused equation solving for fluid networks used in dynamic performance and wave propagation studies.
Scenario and run management for repeatable design variants
Automation Studio provides scenario and run management that binds configuration variants to simulation outputs inside a single project workflow. Easy5 keeps circuit topology tied to parameterized component behavior so transient iterations stay traceable during repeated circuit edits.
Reuse via component libraries and model assembly discipline
OpenModelica enables reuse through Modelica equation compilation and library-driven fluid abstractions, but fluid power library coverage depends on the available Modelica components. Modelica Fluid Library ecosystem tools support reusable Modelica components with connectors that scale from component tests to system-level assemblies, with DAE-based transient and steady-state hydraulic behavior.
Model exchange and external orchestration friction
GT-SUITE supports transient performance for wave propagation work, but model exchange and co-simulation setup can slow iteration loops. FluidSIM prioritizes diagram-first circuit building for fast iterations, but it has limited integration and interchange with external 1D or Modelica toolchains.
Select based on the modeling center of gravity and integration control
Shortlisting works best when teams identify which environment controls the equation system and which environment controls the signals. Modelon Impact pushes the equation system into Modelica for fluid, mechanics, and controllers, while Simscape Fluids pushes signals into Simulink for plant and controller co-simulation.
Pick the equation host or signal host by workflow ownership
Choose Modelon Impact when equation-level integration across fluid valve, pump, and motor dynamics and mechanical or controller equations must share one Modelica equation system. Choose Simscape Fluids when Simulink must orchestrate controller actions by tying fluid states to Simulink signals during transient simulation.
Test transient stress cases against the solver and stability model
If the target includes fast valve switching stability or frequent design iteration cycles, DSHplus provides a transient workflow with tunable solver control aimed at stability during fast switching events. If the target includes compressibility and cavitation accuracy in system-level networks, Siemens Amesim offers dedicated transient modeling for compressibility and cavitation.
Choose a variant-control approach for design-space exploration
If design-space exploration requires binding configuration variants to repeatable simulation outputs inside a single project workflow, Automation Studio scenario-driven runs support consistent parameter sweeps. If traceability must stay attached to circuit edits during repeated transient iterations, Easy5 ties circuit topology to parameterized component behavior.
Decide whether reuse is library-driven or circuit-schematic-driven
If reuse depends on available Modelica component abstractions, OpenModelica supports Modelica compilation and reusable library-driven fluid abstractions but fluid power coverage depends on what components are available. If reuse depends on a circuit schematic that must map directly into executable simulation with interactive feedback, FluidSIM converts ISO 1219-style schematics into simulation circuits using Festo components.
Estimate the iteration cost of large models and numerical stiffness
Simscape Fluids can become numerically stiff for large models, so teams need solver tuning discipline to sustain iteration throughput. GT-SUITE can require careful setup of initial conditions, which affects iteration speed when model size grows or operating points change.
Who should use Fluid Power Simulation Software for real engineering work
Teams that simulate hydraulics and pneumatics as coupled dynamic systems benefit from tools that preserve component behavior and transient effects rather than treating flow and pressure as isolated algebra. The best fit depends on whether the primary work is equation-based system assembly, controller co-simulation, or diagram-driven circuit iteration.
Systems engineering teams building controller plus plant runs
Modelon Impact supports Modelica-first equation integration across fluid dynamics and mechanical and controller equations in a single system run. Simscape Fluids supports controller and plant co-simulation by linking fluid states to Simulink signals during transient runs.
Design and validation teams focused on transient hydraulics accuracy
Siemens Amesim provides transient modeling for compressibility and cavitation effects inside system-level networks. GT-SUITE supports transient-focused equation solving for dynamic performance and wave propagation studies on fluid networks.
Teams running frequent design variants and parameter sweeps
Automation Studio binds configuration variants to simulation outputs with scenario and run management so repeated studies stay consistent. Easy5 maintains traceability by keeping circuit topology attached to parameterized component behavior through transient iterations.
In-house modelers standardizing on Modelica equation reuse
OpenModelica enables equation-based execution for complex coupled physical models using Modelica compilation and reusable component libraries. The Modelica Fluid Library ecosystem supports reusable hydraulics and thermal-fluid component assemblies with connectors that scale toward system-level modeling.
Engineering teams that start from ISO 1219-style schematics
FluidSIM turns ISO 1219-style pneumatic and hydraulic schematics into executable simulation circuits with interactive feedback for sequencing. Easy5 also uses graphical circuit assembly, but it targets 1D circuit simulations where transient behavior remains traceable through parameterized component behavior.
Common pitfalls when buying Fluid Power Simulation Software
Mistakes usually come from assuming that every tool handles large transient systems the same way or from underestimating the setup discipline needed for stable numerical results. Several tools also limit automation or interchange, which can break workflows that depend on scripted model generation or external co-simulation pipelines.
Buying a tool for transient fidelity but skipping solver tuning capacity review
Simscape Fluids can become numerically stiff for large models, which directly impacts convergence unless solver tuning discipline exists. Siemens Amesim can require solver expertise for convergence tuning, so teams should check internal capability before committing.
Assuming library coverage exists for every component type without validating model availability
OpenModelica fluid power library coverage depends on the available Modelica components, so component availability can block specific valve, pump, or network configurations. FluidSIM is tied to Festo components, so external hardware mapping needs must be assessed against that constraint.
Selecting a diagram-first tool for workflows that require deep external model exchange
FluidSIM has limited integration and interchange with external 1D or Modelica toolchains, so co-simulation or model exchange pipelines can stall. GT-SUITE can also slow iteration loops when model exchange and co-simulation setup require additional configuration.
Assuming automation and API surface will support large scripted model generation
DSHplus calls out limited automation and API surface for large scripted model generation, which can shift effort into manual assembly. Automation Studio supports scenario-driven simulation runs, but advanced automation orchestration can require time to learn and integration work for external controller hooks.
Ignoring boundary and initial condition discipline for stable transient runs
GT-SUITE can require careful setup of initial conditions for large models, which can derail repeated transient studies. Easy5 notes that transient iteration fidelity depends on component parameterization discipline and correct library selections, which makes model inputs a critical requirement.
How analysts grounded the shortlist for Fluid Power Simulation Software
Analysts gathered stated product capabilities from each tool’s own materials and copied each figure located next to the passages that describe the capability. Analysts compared those figures with the tool’s documentation and changelog and used an independent review only when a review was actually cited by the same product materials.
Analysts kept the figure when it matched those references and included a published benchmark only when that benchmark was the stated source for performance or capability claims. Modelon Impact stands out in this list because it consistently supports equation-level integration in a Modelica-first workflow that couples fluid valve, pump, and motor dynamics directly to mechanical and controller models.
Frequently Asked Questions About Fluid Power Simulation Software
Which tools support Modelica-based equation workflows for fluid power modeling?
How does transient simulation differ between GT-SUITE and Siemens Amesim when pressure waves matter?
When teams need Simulink controller studies with detailed hydraulic dynamics, which tool fits best?
What breaks if a design workflow requires scenario-based model variants and traceable run outputs?
How do APIs, automation surfaces, and data exchange typically show up across these tools?
Which tools align best with FMI model exchange and Modelica-first extensibility?
When does security and access control become a limiting factor, and which platforms tend to help most?
How should teams plan data migration when moving from diagram-first authoring to equation-first modeling?
Which toolchain fits when a team needs dedicated solver control for stability during fast valve switching?
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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