GITNUXSOFTWARE REVIEW
Data Science AnalyticsTop 10 Best Gpu Overclocking Software of 2026
Ranking roundup of top gpu overclocking software options with feature tradeoffs, focusing on stability and control for NVIDIA and MSI GPUs.
How we ranked these tools
Vendors set the topic, but our editors set the inclusion criteria and the evaluation framework before research starts.
Search agents gather the source set and the review record, including transcriptions of video reviews and podcasts.
Framework: Features 40% · Ease 30% · Value 30%
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NVIDIA App is the best pick for NVIDIA GPU owners who want driver-aligned profile tuning and monitoring because its profile-based workflow stays consistent with what the driver is actually doing at runtime, while MSI Afterburner fits power users on a single Windows rig since its voltage-frequency curve editor enables per-step shaping with quick telemetry feedback.
Editor’s top 3 picks
Three quick recommendations before you dive into the full comparison below — each one leads on a different dimension.
NVIDIA App
Profile-based tuning and monitoring are managed inside NVIDIA’s driver ecosystem rather than a standalone overclocking workflow.
Best for: Fits when users need driver-aligned profile switching and monitoring for modest clock and power tuning.
MSI Afterburner
Editor pickVoltage-frequency curve editor with per-step control rather than offset-only tuning.
Best for: Fits when single-workstation tuning needs fast iterations with telemetry feedback.
EVGA Precision X1
Editor pickVoltage-frequency curve editor provides granular points-based voltage control tied to active clock tuning.
Best for: Fits when a single Windows user iterates clocks, voltage, and fans with live telemetry.
Comparison Table
NVIDIA App
consumer GPU platformNVIDIA desktop software that includes automatic GPU tuning, driver management, and performance monitoring.
Profile-based tuning and monitoring are managed inside NVIDIA’s driver ecosystem rather than a standalone overclocking workflow.
NVIDIA App is the category’s most driver-adjacent option for overclocking because tuning and telemetry run through NVIDIA’s software stack. Supported devices get persistent performance controls, while monitoring panels help correlate load behavior with the effects of clock and power adjustments. The workflow favors quick iteration rather than deep manual editing of advanced tuning tables.
The main tradeoff is reduced control depth compared with tools that expose a full voltage-frequency curve editor and memory-specific fine-grained parameters. NVIDIA App fits best for gamers and creators who want profile switching and monitoring while iterating on safe offsets, without maintaining separate utilities and scripts for telemetry.
- +Driver-integrated tuning reduces mismatch between settings and runtime behavior
- +Persistent profiles make repeatable adjustments easier across sessions
- +Built-in monitoring supports quick stability checks during workload testing
- +Simpler UI lowers friction versus multi-panel overclocking tools
- –Control depth is limited versus tools that edit full voltage-frequency curves
- –Tuning options vary by GPU support and driver behavior
PC gamers
Iterate stable boosts with quick monitoring
Fewer failed sessions
Streaming creators
Keep consistent clocks across restarts
More repeatable stream performance
Show 2 more scenarios
Content creators
Tune power limits for thermals
Lower heat spikes
Reduce GPU power while monitoring temperature behavior during renders to stay within targets.
IT managed PC fleets
Standardize driver-adjacent tuning
Reduced configuration drift
Use consistent NVIDIA-managed tooling so tuned profiles match the supported driver stack across machines.
Best for: Fits when users need driver-aligned profile switching and monitoring for modest clock and power tuning.
MSI Afterburner
consumer PC tuningWindows utility for GPU overclocking, fan control, hardware monitoring, and on-screen display.
Voltage-frequency curve editor with per-step control rather than offset-only tuning.
MSI Afterburner fits users who want direct driver-level override style tuning without switching to a full OEM utility, and it commonly works across many GeForce and Radeon boards through a consistent UI. Core and memory offsets are paired with monitoring and on-screen overlays, so tuning iterations can be guided by live readings. The voltage-frequency curve editor enables per-frequency voltage shaping instead of relying only on global offsets. Profile switching supports multi-setup workflows such as different load targets, but it still centers on local workstation control rather than fleet management.
A key tradeoff is that MSI Afterburner requires careful per-GPU configuration because stability depends on the specific card, cooling capacity, and driver behavior. Users who want governance features like RBAC or audit logging are better served by enterprise fleet tools, since Afterburner keeps administration lightweight and local. A typical usage situation is stepping through a stability benchmark loop by adjusting offsets, watching telemetry, and then applying a new fan curve or power limit slider before repeating the cycle.
- +Voltage-frequency curve editor enables per-frequency voltage shaping
- +Fan curve profiles support thermal targeting across workload changes
- +Persistent profiles support quick switching between tuning presets
- +Live hardware monitoring feeds tuning decisions in the same UI
- –Stability tuning requires disciplined iteration and rollback planning
- –Multi-GPU profile switching can be awkward across different installed cards
PC enthusiasts
Optimize boost behavior in games
Higher sustained boost
Content creators
Balance thermals during GPU rendering
Lower heat throttling
Show 1 more scenario
Benchmarkers
Validate clocks with repeatable runs
Consistent benchmark runs
Users run stability benchmark loop cycles and then lock in offsets and curves that hold artifacts-free results.
Best for: Fits when single-workstation tuning needs fast iterations with telemetry feedback.
EVGA Precision X1
consumer PC tuningGPU tuning software for NVIDIA graphics cards with clock control, fan curves, monitoring, and OC Scanner support.
Voltage-frequency curve editor provides granular points-based voltage control tied to active clock tuning.
EVGA Precision X1 focuses on GPU-side tuning controls that map directly to common overclock workflows, including core clock offset, memory clock offset, power limit slider, and fan curve profile adjustments. Live monitoring and sensor logging help track temperature trends and the impact of boost clock behavior while a stability benchmark loop runs. The tool’s data capture stays oriented around the tuning session, which benefits iterative changes when artifact detection or frame-time variance testing is part of the process.
A tradeoff appears with EVGA-centric product targeting, since features and sensor availability can vary across non-EVGA GPUs and driver combinations. It fits best when a single workstation user runs tuning and testing cycles locally, such as setting a thermal target for a specific game workload and validating results through a consistent benchmark loop. Multi-user governance and API-driven automation are not part of the native workflow, so team-wide change tracking depends on manual documentation outside the tool.
- +Live sensor telemetry helps correlate tuning changes with boost behavior
- +Voltage-frequency curve editor enables finer voltage-frequency shaping than sliders
- +Fan curve profile control supports thermal target management under load
- +Per-profile workflow reduces rework during iterative tuning sessions
- –Feature coverage varies across GPUs outside the EVGA ecosystem
- –No built-in API or automation surface for provisioning tuning profiles
- –Stability validation relies on external benchmark and artifact checks
- –Monitoring and control remain local to the running workstation
PC enthusiasts and tinkerers
Tune voltage-frequency response for a favorite game
Lower throttling, steadier performance
Benchmarking hobbyists
Run repeatable stability benchmark loops
Fewer regressions between runs
Show 1 more scenario
Small workstation operators
Manage thermal behavior during rendering
More predictable render throughput
Set fan curve profiles and power limit slider targets to control thermal density headroom under sustained loads.
Best for: Fits when a single Windows user iterates clocks, voltage, and fans with live telemetry.
OCCT
benchmarkingOCCT combines GPU stress tests, artifact detection, sensor logging, and stability analysis.
Couples stress-driven stability loops with sensor logging so each tuning change can be validated using the same test conditions.
OCCT is an overclocking and stability testing tool from ocbase.com that pairs GPU load generation with hardware monitoring while tuning clocks, memory, and power limits. Its workflow emphasizes repeatable stability benchmark loop runs with artifact detection and sensor logging so results can be compared across changes.
- +Stability benchmark loop that keeps GPU under consistent load for comparisons
- +Artifact detection tied to the stress run makes failures easy to spot
- +Hardware monitoring with logged sensor values helps correlate tuning changes
- +Repeatable test scenarios reduce guesswork during iterative overclocking
- –Voltage curve editor and per-point tuning workflows are not the focus
- –Fan curve profile control is limited compared with vendor overclocking suites
- –Multi-GPU profile switching support is not the strongest area
- –Results review needs manual comparison when running long stress sequences
Best for: Fits when users want evidence-based GPU stability checks with logged monitoring during iterative clock and memory tuning.
3DMark
benchmarking3DMark supplies repeatable graphics benchmarks for comparing clock changes, temperatures, and frame-time behavior.
Workload-to-workload frame-time behavior reporting in 3DMark provides a clearer signal for marginal stability than a single score.
3DMark runs repeatable GPU performance tests that measure score, stability behavior, and frame-time patterns under defined workloads. It focuses on benchmarking and validation loops rather than exposing direct controls for voltage curve edits, core offset tuning, or memory clock offset management.
- +Repeatable benchmark presets help compare tuning changes across runs
- +Frame-time related metrics highlight stutter from unstable configurations
- +Results history supports tracking regressions and improvements
- –No direct voltage curve editor for core and memory tuning
- –Overclock settings remain outside 3DMark, requiring other tools
- –Stability insight depends on test selection and loop duration
Best for: Fits when GPU tuning workflows need repeatable validation and performance deltas across configuration iterations.
CPUID HWMonitor
SMBHWMonitor tracks GPU temperatures, voltages, clocks, and fan speeds during overclock testing.
Broad GPU telemetry display with optional sensor logging for correlating throttle and instability symptoms.
CPUID HWMonitor is a hardware monitoring utility that brings GPU sensor visibility, then it helps guide manual tuning by showing clocks, voltages, and temperatures in real time. It can log readings to support later review during tuning sessions, and it can help identify thermal and power-limit behavior while workloads stress the GPU.
- +Wide sensor readout for clocks, voltages, and temperatures
- +Simple interface that stays readable during active tuning
- +Sensor logging supports later correlation with stability issues
- +Low-friction workflow for spotting thermal and power-limit events
- –No voltage-frequency curve editor for voltage curve shaping
- –No tuning automation like stability benchmark loops or artifact checks
- –Polling-based monitoring can miss fast transient spikes under load
- –Limited overclock control scope versus dedicated tuning tools
Best for: Fits when monitoring-rich telemetry is needed while another tool applies core clock offset and memory clock offset changes.
ASRock Tweak
vertical specialistASRock Tweak provides clock adjustment, fan control, monitoring, and profile support for selected ASRock GPUs.
ASRock-linked profile switching that keeps fan behavior and monitoring context consistent across tuning iterations.
ASRock Tweak targets GPU overclocking from ASRock hardware and focuses on board-aware controls that map directly to tuning sliders and monitoring. The app pairs clock and power adjustments with fan curve control and hardware sensor readouts during load.
- +Board-aware tuning controls reduce mismatch with supported ASRock GPUs
- +Fan curve profiling stays linked to temperature sensors during stress runs
- +Profile switching helps repeat stable settings across test sessions
- +Hardware monitoring updates support quick correlation with instability
- –Feature coverage is narrower on non-ASRock GPU models
- –Voltage curve editing depth is limited versus dedicated curve editors
- –Stability validation tooling is minimal and relies on external benchmarks
- –Overclock state management lacks fine-grained rollback safeguards
Best for: Fits when tuning needs ASRock-aligned controls and sensor-driven fan behavior with external stability testing.
Gainward ExperTool
vertical specialistExperTool provides Gainward GPU clock adjustment, fan control, voltage options, and monitoring.
Fan curve profile management with thermal-target oriented behavior in the same tuning workflow.
Gainward ExperTool is a Windows GPU tuning utility from the Gainward software stack that focuses on offset-style clock and fan control rather than full curve authoring. It supports hardware monitoring readouts and profiles for repeatable tuning behavior across boots, which makes it practical for single-GPU workflows.
- +Offset-based core and memory tuning for quick iteration
- +Fan curve profile controls tied to thermal behavior
- +Profile switching supports repeatable settings between sessions
- +On-screen monitoring helps track thermals during tuning loops
- –Voltage curve editing coverage is limited compared with advanced curve editors
- –Stability benchmarking automation is minimal for long validation runs
- –Feature set is tightly aligned to Gainward device workflows
- –Fine VRAM timing control is not a first-class tuning surface
Best for: Fits when a single-GPU user needs fast offset tuning and fan profile control without deep curve editing.
AORUS ENGINE
board-partner utilityGIGABYTE graphics utility for clock tuning, fan control, and preset overclocking modes.
Profile-based tuning that couples fan behavior with clock targets for quick in-session switching on AORUS GPUs.
AORUS ENGINE is a Gigabyte-focused GPU overclocking utility that applies real-time clock, voltage, fan, and power controls through a Windows driver path. It supports per-profile tuning so different boost and thermal targets can be swapped quickly during normal desktop use and gaming sessions.
- +Clock, voltage, fan, and power controls stay in one panel
- +Profile switching supports practical daily use across workloads
- +Sensor readouts help correlate thermal headroom with tuning changes
- +Gigabyte-specific GPU support reduces friction on supported models
- –Automation depth is limited compared with advanced tuning workflows
- –Stability validation and artifact detection tooling is not built in
- –Feature coverage can narrow on non-Gigabyte GPU models
- –Fan and thermal behavior tuning offers less granular control than leaders
Best for: Fits when a workstation or gamer needs fast, profile-based GPU tuning on supported Gigabyte hardware.
AMD Software Adrenalin Edition
consumerAMD's driver suite provides Radeon tuning, voltage controls, fan curves, power limits, and performance metrics.
Adrenalin Edition’s voltage-frequency curve editor lets tuning target specific frequency steps rather than only global offsets.
AMD Software Adrenalin Edition bundles GPU tuning with driver-level controls, including core clock and memory clock offset sliders plus a voltage-frequency curve editor. The software targets AMD graphics driver users who want in-OS adjustments, hardware monitoring, and fan curve control without separate utility installs.
- +Voltage-frequency curve editor supports fine-grain tuning beyond simple offsets
- +Driver-integrated fan curve profiles track GPU thermals during tuning sessions
- +Per-game profiles reduce manual switching across workloads
- +Hardware monitoring graphs update within the driver control loop
- –Automation and API surface for scripting stability runs is limited
- –Artifact detection and frame-time variance testing are not first-class tuning workflows
- –Multi-GPU profile coordination is constrained by driver-scoped control
- –VRAM timing tuning options are narrower than tools focused on memory subsystems
Best for: Fits when AMD GPU owners need driver-integrated clock, voltage, and fan tuning with fast profile switching.
Conclusion
After evaluating 10 gpu overclocking software, NVIDIA App 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 Gpu Overclocking Software
GPU overclocking software in this guide focuses on how each tool writes clock targets, voltage behavior, and fan response while staying aligned with the installed driver and GPU vendor controls. The lineup includes NVIDIA App, MSI Afterburner, and NVIDIA App plus eight additional options that differ in voltage-frequency curve editing depth, telemetry handling, and validation workflows.
Some tools manage tuning inside the driver ecosystem, while others expose per-frequency or per-point voltage control and stress-loop stability checking using repeatable load conditions. The selection also separates tools that emphasize quick in-session iteration from tools that provide tighter evidence during tuning changes using logged monitoring or workload-to-workload behavior reporting.
GPU Overclocking Software for editing clocks, voltage, and fan behavior
GPU overclocking software is the control layer that changes core clock offset and memory clock offset behavior, adjusts fan curve profiles, and may edit a voltage-frequency curve for targeted frequency steps. NVIDIA App emphasizes driver-integrated profile-based tuning and monitoring so the runtime behavior matches the settings framework.
MSI Afterburner shifts the experience toward a voltage-frequency curve editor with per-frequency shaping and fan curve profiles that target thermal behavior during iterative tests. Tools like EVGA Precision X1 and AMD Software Adrenalin Edition also provide voltage-frequency curve editing, while other utilities focus more on telemetry visibility or external stability validation rather than deep curve control.
GPU Overclocking Software features that change tuning outcomes
The biggest differences across gpu overclocking software show up in how each tool writes core clock offset, memory clock offset, and fan behavior during real workloads. NVIDIA App and AORUS ENGINE emphasize profile-based switching tied to vendor behavior, while MSI Afterburner, EVGA Precision X1, and AMD Software Adrenalin Edition focus on deeper voltage-frequency curve editing.
Stability work also diverges by tool design. OCCT and 3DMark focus validation workflows using repeatable load conditions, while CPUID HWMonitor centers telemetry visibility so another tool can apply tuning changes without built-in stability loops.
Voltage-frequency curve editing depth
MSI Afterburner provides a voltage-frequency curve editor with per-step control, and EVGA Precision X1 provides granular points-based voltage control tied to active clock tuning. NVIDIA App limits control depth compared with full curve editors, and OCCT intentionally prioritizes stress validation over curve editing workflows.
Driver-integrated profile switching and monitoring
NVIDIA App manages profile-based tuning and monitoring inside the NVIDIA driver ecosystem so runtime behavior matches its profile framework. AORUS ENGINE and AMD Software Adrenalin Edition also use driver-aligned profile workflows, while CPUID HWMonitor stays monitoring-only and expects a separate tuner.
Stability loops and evidence-based validation
OCCT couples stress-driven stability loops with sensor logging and artifact detection tied to the stress run, which makes tuning failures easier to spot under consistent load. 3DMark adds repeatable benchmark presets and frame-time behavior reporting, and other tools like NVIDIA App and AORUS ENGINE omit built-in stability validation as a first-class workflow.
Telemetry visibility and sensor logging for correlation
CPUID HWMonitor delivers broad GPU telemetry display with optional sensor logging so throttle and instability symptoms can be correlated with tuning changes made elsewhere. MSI Afterburner and EVGA Precision X1 also show telemetry feedback during iteration, while NVIDIA App places monitoring inside driver-managed behavior rather than a standalone telemetry workflow.
Fan curve profiles linked to monitoring context
MSI Afterburner includes fan curve profiles for thermal targeting across workload changes, and EVGA Precision X1 supports live sensor telemetry during tuning while shaping curves. Gainward ExperTool and ASRock Tweak keep fan behavior tied to thermal targets and ASRock-linked monitoring context, while NVIDIA App restricts control depth versus full curve editing.
Choose a tool by its tuning workflow, not its feature list
Selecting the right gpu overclocking software works best when the intended tuning workflow matches the tool’s control model. Some tools align tuning and monitoring inside the driver ecosystem, while others expose per-frequency or per-point voltage control and expect manual validation loops.
Validation and telemetry needs also decide the choice. Tools like OCCT and 3DMark produce repeatable evidence using consistent stress or workload presets, while CPUID HWMonitor is the monitoring layer when stability checking happens in a separate utility.
Match tuning control depth to the voltage workflow required
If per-step or per-point voltage-frequency curve shaping is required, MSI Afterburner and EVGA Precision X1 expose voltage-frequency curve editors designed for frequency-specific voltage targets. If the workload tolerates driver-aligned profile tuning with limited curve depth, NVIDIA App keeps adjustments inside the driver ecosystem and varies tuning options by GPU support.
Pick the validation model that fits stability criteria
If stability validation needs to run as a structured stress loop with sensor logging and artifact detection tied to the same run, OCCT provides that combined workflow. If stability needs to show frame-time related behavior across repeatable presets, 3DMark offers workload-to-workload frame-time reporting, and other tuners like AMD Software Adrenalin Edition do not provide first-class artifact detection workflows.
Decide whether tuning and monitoring must share one framework
If tuning profiles and monitoring must stay inside the same driver-managed ecosystem, NVIDIA App keeps profile behavior aligned with runtime behavior and reduces mismatch risk. If monitoring must be separated from tuning so another tool can change clock and memory targets, CPUID HWMonitor provides broad telemetry readout while leaving voltage-frequency edits to a different utility.
Confirm fan behavior control matches the hardware and platform
If the fan curve must be shaped for thermal targeting across workload shifts, MSI Afterburner’s fan curve profiles support that iteration pattern during active tuning. If consistent fan behavior and monitoring context are required for ASRock platforms, ASRock Tweak links fan behavior to ASRock-linked controls, and Gainward ExperTool focuses on fan curve profile management with thermal-target oriented behavior.
Avoid multi-card workflow friction before committing
If multi-GPU profile switching across different installed cards is required, MSI Afterburner can become awkward due to multi-GPU profile switching friction. NVIDIA App keeps profile switching driver-aligned on supported setups, while EVGA Precision X1 and other vendor-linked options focus on narrower platform expectations.
Who should use which Gpu Overclocking Software
Different gpu overclocking software tools suit different tuning habits because each tool couples or separates control, telemetry, and stability validation. The best match depends on whether tuning lives inside the driver ecosystem or in an external workflow with explicit evidence gathering.
Workload validation also changes the choice. Users who care about repeatable stress-loop outcomes usually pick OCCT, while users who care about frame-time behavior across presets often pick 3DMark.
NVIDIA GPU owners prioritizing driver-aligned profile switching
NVIDIA App keeps tuning and monitoring inside the NVIDIA driver ecosystem so profile switching stays consistent with runtime behavior and avoids mismatches caused by external control models.
Single-workstation tuners who need per-frequency or per-point voltage control
MSI Afterburner and EVGA Precision X1 provide voltage-frequency curve editors with per-step or points-based voltage shaping, which fits iterative tuning tied to live telemetry.
Stability-focused users who want logged, stress-loop evidence
OCCT couples stress-driven stability loops with sensor logging and artifact detection tied to the stress run, which supports evidence-based comparisons across tuning changes.
GPU tuners who want monitoring without owning the tuning workflow
CPUID HWMonitor delivers broad telemetry display with optional sensor logging so another tool can apply core clock offset and memory clock offset changes while monitoring remains in a separate layer.
ASRock buyers who want board-aware fan and monitoring consistency
ASRock Tweak keeps profile switching and fan behavior tied to ASRock-linked monitoring context so temperature sensor behavior stays consistent during iterative tuning.
Common Gpu Overclocking Software mistakes that create false confidence
Many tuning failures come from using a tool that does not match the stability validation method assumed by the workflow. A fast tuning loop without a matching stability loop can hide instability symptoms that only show under consistent load.
Another common mistake comes from mixing control models without aligning monitoring and evidence capture. Driver-integrated profile tuning behaves differently from external voltage curve edits, and telemetry-only tools cannot confirm stability by themselves.
Tuning voltage-frequency curves without using a consistent stability loop
OCCT provides stress-driven stability loops with sensor logging and artifact detection tied to the same run, while 3DMark focuses on frame-time behavior reporting, so either tool can serve as a matching evidence generator.
Assuming telemetry-only monitoring can replace artifact detection
CPUID HWMonitor can show clocks, voltages, and temperatures, but it does not include tuning automation or artifact checks, so stability criteria need a separate validation workflow.
Using a driver-integrated profile tool for deep voltage curve edits
NVIDIA App limits control depth compared with full voltage-frequency curve editors, so users who need per-frequency curve shaping should pivot to MSI Afterburner or EVGA Precision X1.
Skipping rollback discipline during per-step voltage shaping
MSI Afterburner’s per-frequency curve workflow requires disciplined iteration and rollback planning, so stability changes should be tracked alongside telemetry feedback and repeatable validation runs.
How analysts grounded the Gpu Overclocking Software shortlist
Analysts opened the original publication and captured each figure that appeared beside the passages describing the shortlisted tools. Analysts then cross-checked those captured figures against each tool’s official documentation and changelog, and they also used an independent review only when one was cited in the publication context.
Analysts kept a captured figure when it matched the documentation and changelog behavior, and they included a published benchmark only when that benchmark was the cited source. NVIDIA App stayed at the top because driver-integrated profile-based tuning and monitoring keep runtime behavior aligned with its profile framework rather than requiring an external tuning and monitoring split.
Frequently Asked Questions About Gpu Overclocking Software
How do NVIDIA App, MSI Afterburner, and AMD Software Adrenalin Edition differ in how clock changes are applied?
Which tool is better for voltage-frequency curve step editing: MSI Afterburner, EVGA Precision X1, or AMD Software Adrenalin Edition?
When does OCCT fit better than 3DMark for overclock stability validation?
What breaks if overclocking settings are moved between GPU vendors or board models?
How does sandboxing and script compatibility differ across OCCT and Afterburner?
Where does CPUID HWMonitor fall short compared with Afterburner for end-to-end overclocking control?
How do multi-profile switching workflows compare between NVIDIA App, AORUS ENGINE, and ASRock Tweak?
What data migration steps matter when moving from EVGA Precision X1 to another tool?
Which tool provides the most explicit monitoring-to-tuning feedback loop for troubleshooting instability: OCCT, EVGA Precision X1, or Gainward ExperTool?
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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