NVIDIA
NVIDIA RTX 6000 Ada Generation vs NVIDIA Quadro P5000
Full comparison of specs, performance and benchmarks
NVIDIA
Quadro P5000
Aggregate performance score
We've compared RTX 6000 Ada and Quadro P5000 across specs and all relevant benchmarks.
↗RTX 6000 Ada outperforms Quadro P5000 by ~21% on the catalog index; this is not a measured FPS gain.+21%
Scores are normalized on the Head to Head scale. Higher is better. How is this calculated?H2HBench Data Quality
Low confidenceSpecifications: Field verification not recordedVerified gaming results: 0Estimated / unverified results: 0Price record updated: Sep 6, 2026
Limited verified data
H2HBench Verdict
Higher catalog score: NVIDIA RTX 6000 Ada Generation (~21%)
The score difference is not a measured FPS improvement.
Reasons to consider RTX 6000 Ada
- Higher catalog performance index
- More graphics memory
- Recorded feature support: CUDA / OpenCL
Reasons to consider Quadro P5000
- Lower stated power consumption
- Higher catalog value index
- Recorded feature support: CUDA / OpenCL · No dedicated hardware upscaling (DLSS unsupported)
Catalog metrics radar
Axes with missing data are hidden; every value uses a fixed scale.
NVIDIAPerformance
Efficiency
Price / performance
Memory capacity
8658
96100
2858
10088
Graphics card ranking
Positions 15–20of 30
Which should you choose?
Two practical conclusions based on community votes and gaming value.
NVIDIA RTX 6000 Ada Generation
88 likesHead to Head visitors currently choose this model more often.
Overview
Scores are calculated from specifications, performance, and efficiency.
GamesDirectX, OpenCL, and Vulkan performance
86Better
58
Professional applications3D modeling, video editing, and rendering
68Better
48
AI and machine learningMachine-learning and AI capabilities
66Better
46
Power efficiencyPower consumption across workloads
96
100Better
Head to Head scoreOverall catalog score
75Better
62
Specifications
The better numeric value is highlighted in green, taking the metric direction into account.
TFLOPSBetter
DisplayPort
HDMI
Interface
Memory busBetter
Memory type
Architecture
Device class
Process nodeBetter
Release date
VRAMBetter
Power consumptionBetter
Vulkan
Compute API
DirectX—
OpenGL—
Upscaling—
Transistor count—
Die size—
Shader units / cores—
Base clock—
Boost clock—
Length—
Thickness—
Recommended PSU—
Power connector—
USB Type-C—
Max monitors—
Max resolution—
H2H workload indices
Comparable internal indices on a fixed 0–100 scale.
H2H Raster IndexH2H Index / 100865839%
H2H Compute IndexH2H Index / 100886235%
H2H Rendering IndexH2H Index / 100906631%
H2H Memory Workload IndexH2H Index / 1001008813%
H2H Efficiency IndexH2H Index / 100961004%
These are versioned H2H calculated indices derived from normalized catalog data. They are not results from a third-party benchmark.
H2H AI workload indices
Estimated workload profiles based on available performance and memory data.
H2H Image Generation IndexH2H Index / 100927224%
H2H ML Training IndexH2H Index / 100927027%
H2H Inference IndexH2H Index / 100906631%
H2H Local LLM IndexH2H Index / 100947522%
H2H Computer Vision IndexH2H Index / 100906729%
These are versioned H2H calculated indices derived from normalized catalog data. They are not results from a third-party benchmark.
Graphics APIs, SDKs and upscaling
DirectX—12 (feature level 12_1)
VulkanVulkan 1.3Vulkan 1.3
OpenGL—4.6
Upscaling—No dedicated hardware upscaling (DLSS unsupported)
Compute APICUDA / OpenCLCUDA / OpenCL
Architecture and release
ArchitectureAda LovelacePascal
Process node5 nmBetter16 nm
Release date20222016
Device classProfProf
GPU cores, die and clocks
Transistor count—7.2 billion
Die size—314 mm²
Shader units / cores—2560 CUDA cores
Base clock—1607 MHz
Boost clock—1733 MHz
Board size, power and compatibility
InterfacePCIe 4.0 x16PCIe 3.0 x16
Length—267 mm
Thickness—Dual-slot (38 mm)
Recommended PSU—450 W
Power connector—1× 8-pin PCIe
Display outputs and limits
HDMINo0 native (DisplayPort adapter supported)
DisplayPortDisplayPort 1.4aDisplayPort 1.4
USB Type-C—Not supported
Max monitors—4 simultaneous displays
Max resolution—7680×4320 at 30 Hz via DisplayPort 1.4
Memory and compute throughput
VRAM48 GBBetter16 GB
Memory typeGDDR6 ECCGDDR5X
Memory bus384-bitBetter256-bit
TFLOPS91.1Better8.9
Other comparisons
Reviews and questions
Explain this comparison
Beyond percentages: causes, relevant specifications, and practical impact behind every chart.
What AI will explain
Overall score, radar, FPS, synthetic tests, specifications, efficiency, and value.
Evidence details
Data coverage
- Verified gaming results
- 0
- Verified synthetic results
- 0
- Games with verified results
- 0
- Verified community results
- 0
- Estimated / unverified results
- 0
- Specifications
- 0 / 43
Calculated scores · How is this calculated?
Scores use the catalog model and may include estimated inputs. Open each score to see its origin and the methodology.
clamp(round(performance × 0.7 + (efficiency ?? 50) × 0.2 + (value is missing ? 0 : (value − 50) × 0.2)), 0, 100)Price evidence · View sources (4)
Verified community results
No verified community benchmarks yet.
Reviewed by
No individual editorial review is recorded for this comparison.
Comparison history
No recorded changes yet. Change tracking starts with the evidence system; earlier history has not been reconstructed.
Why you can trust this comparison
Origin and confidence are evaluated from the evidence attached to each value. Unverified results are identified, and specification, benchmark and price dates remain separate.
Owner experiences
Real builds, results, and community feedback.
Moderator reviewedHelpful to the communityExpert badges
Frequently asked comparison questions
Short recommendations based on performance, memory, power consumption, and intended use.
01Which is better for gaming: RTX 6000 Ada or Quadro P5000?+
RTX 6000 Ada has the higher overall gaming score, while Quadro P5000 offers the better price-to-performance ratio. The final choice depends on resolution and settings.
02Which is better for streaming?+
RTX 6000 Ada is the stronger streaming choice thanks to performance, hardware encoding, and application support. Check AV1, H.264, and HEVC support before buying.
03Which is better for Blender?+
RTX 6000 Ada is generally the better option for Blender and GPU rendering. Rendering-engine support and available VRAM also matter.
04Which is better for video editing?+
RTX 6000 Ada offers more overall performance, while RTX 6000 Ada offers more memory headroom. Codecs, hardware encoders, and editor optimization can change the result.
05Which is better for neural networks and AI?+
RTX 6000 Ada is the more practical option for local AI workloads. VRAM capacity, compute libraries, and framework compatibility are especially important.
06Which is better for 1080p?+
Quadro P5000 is the most rational 1080p choice, where high frame rates and cost per frame matter most.
07Which is better for 1440p?+
RTX 6000 Ada leads in combined 1440p performance. RTX 6000 Ada can be preferable for heavy textures and games with high VRAM usage.
08Which is better for 4K?+
RTX 6000 Ada is preferable for 4K, where total performance, memory bandwidth, and VRAM capacity have the greatest impact.
09Which is better for a quiet PC?+
RTX 6000 Ada is easier to use in a quiet build because of its lower estimated power and thermal load. Actual noise depends on the specific cooler.
10Which is better without replacing the power supply?+
RTX 6000 Ada is the safer candidate because its stated power consumption is lower. Verify PSU wattage, age, and power connectors.
11Is it worth upgrading from the previous generation?+
Consider upgrading to RTX 6000 Ada if your current device no longer delivers the required FPS, memory capacity, or feature support. A gain below 15–20% is usually worth waiting for a price cut.