Real-time lighting performance guide
Ray Tracing GPU Benchmarks
Ray tracing can transform reflections, shadows and global illumination, but it also changes the GPU workload dramatically. A useful benchmark must separate native rendering, upscaling, frame generation and latency rather than combining every feature into one headline number.
This page provides an editorial testing framework. Exact current results should be published with game versions, drivers, settings, test systems and original data sources.
Quick answer
The best ray tracing GPU is the one that delivers a strong base frame rate before extra generated frames are counted
Native RT shows the true rendering cost. Upscaling can recover performance while preserving useful image quality. Frame generation can improve displayed smoothness, but it should be judged separately from control response and traditionally rendered frame rate.
Use ray tracing benchmarks to choose a performance class, then compare current Australian pricing, VRAM, warranty, power and the exact games you play.
Animated ray tracing observatory
How the ray tracing pipeline changes the result
The final displayed image can include several layers. Each layer should be measured and explained separately.
- Raster base: the traditional performance foundation.
- Ray tracing: the added cost of advanced lighting effects.
- Upscaling: image reconstruction used to recover performance.
- Frame generation: extra displayed frames layered on top.
- Final result: should be judged by image quality, smoothness and responsiveness together.
Ray tracing benchmark scenarios
Choose the RT test that matches your resolution and priorities
Different resolutions and feature combinations create different buying decisions.
Entry ray tracing
Best for buyers who want advanced lighting at Full HD without moving into the highest GPU tiers.
- Check native RT first
- Use quality-mode upscaling carefully
- Watch CPU limits in lighter scenes
- Compare current AUD value
Balanced ray tracing
The broad sweet spot for visual quality, resolution and manageable GPU demand.
- Compare mainstream and premium tiers
- Check low-frame behaviour
- Inspect image reconstruction quality
- Measure the price gap carefully
Premium ray tracing
The most demanding mainstream RT scenario, often requiring premium hardware or smart upscaling.
- Expect stronger GPU requirements
- Check VRAM and bandwidth
- Separate native and upscaled results
- Measure base FPS before frame generation
Base rendering strength
Shows how the GPU handles ray-traced effects without relying on upscaling or generated frames.
- Best baseline for GPU comparison
- Can be very demanding
- Useful for image-quality purists
- Should not be mixed with frame generation
Practical ray tracing
Shows how well the complete image-reconstruction pipeline performs in real gaming conditions.
- Compare equivalent quality modes
- Inspect motion and thin geometry
- Check the native baseline
- Use game-specific testing
Displayed smoothness
Useful for cinematic gaming when the base frame rate is already healthy and latency is acceptable.
- Report generated and base FPS separately
- Check input response
- Inspect artefacts in motion
- Do not treat generated FPS as native FPS
Testing priorities
What matters most in a ray tracing benchmark?
RT testing needs more context than a normal raster chart because the feature stack can change the result dramatically.
Controlled test setup
- Use the same CPU, memory and motherboard.
- Record driver, game version and RT preset.
- Use the same scene or built-in benchmark.
- Keep resolution and graphics settings identical.
- Run multiple passes and investigate variance.
- Label native, upscaled and generated-frame results clearly.
Editorial importance for RT testing
Interactive RT benchmark planner
Which ray tracing benchmark route fits you?
Choose your resolution, feature preference and buying priority. The planner recommends the most relevant next page.
Start with balanced 1440p ray tracing
Your choices point to a practical QHD ray tracing setup using quality-mode upscaling and sensible Australian value.
Ray tracing benchmark reference
What each RT test can reveal
| Test type | Best for | What it reveals | Main limitation | Companion evidence |
|---|---|---|---|---|
| Native RT | Base GPU comparison | True RT rendering cost | Can be impractical in demanding games | Upscaled RT and image quality |
| Upscaled RT | Practical gaming performance | Reconstruction quality and speed | Mode quality varies | Native baseline |
| Frame-generated RT | Displayed smoothness | Visual fluidity | Does not equal native response | Base FPS and latency |
| 1080p RT | Entry and mainstream systems | Lower-resolution RT viability | Can become CPU limited | CPU context |
| 1440p RT | Balanced premium gaming | Resolution and RT balance | Still game dependent | VRAM and value |
| 4K RT | High-end and extreme GPUs | Maximum RT stress | Often needs upscaling | Image quality and power |
| Latency testing | Responsive play | Control response | System-wide variable | Base frame rate |
| Performance per dollar | Australian buyers | RT value at current price | Changes with sales | Warranty and total cost |
What is a useful ray tracing GPU benchmark?
A useful ray tracing benchmark measures the cost of advanced lighting effects under controlled conditions. It identifies the game, resolution, RT preset, driver, test system and whether upscaling or frame generation is enabled.
Ray tracing should not be mixed into a general gaming average without explanation because it can change the performance order and buying recommendation.
Raster and ray tracing are different workloads
Traditional raster rendering remains the baseline for most games. Ray tracing adds complex lighting, reflection and shadow work on top.
A card that leads in raster performance may not lead by the same margin in ray tracing. That is why both need separate charts and separate conclusions.
Native ray tracing is the clean baseline
Native RT shows how the GPU performs without image reconstruction or generated frames. It provides the clearest view of raw ray-tracing strength.
Native RT can be too demanding for practical use in some games, especially at 4K. That does not make it useless as a benchmark. It simply means the result should be paired with practical settings.
Upscaled ray tracing
Upscaling can make ray tracing practical by rendering internally at a lower resolution and reconstructing the final image. Quality mode is usually the best starting point.
Image quality should be judged in motion. Look for ghosting, unstable fine detail, transparency problems and changes in reflections.
Frame generation and RT
Frame generation can improve displayed smoothness, especially in cinematic games. It does not replace a healthy base frame rate.
A benchmark should report the base FPS separately from the generated result and explain latency behaviour. Generated frames should not be compared with native frames as though they are identical.
Ray tracing by resolution
1080p
Full HD is the easiest RT target. It can make ray tracing practical on mainstream GPUs, although lower resolutions can expose CPU limits in lighter scenes.
1440p
QHD is the broad RT sweet spot. It balances image clarity and GPU demand while leaving room for quality-mode upscaling.
4K
Ultra HD is the most demanding mainstream RT target. High-end or extreme GPUs, quality-mode upscaling and careful settings become more important.
Latency and responsiveness
Latency depends on the CPU, GPU load, game engine, base frame rate, display and input devices. A smooth generated frame rate can still feel less responsive than a strong native frame rate.
Competitive players should prioritise a healthy base frame rate and test input response in the actual game.
VRAM and ray tracing
Ray-traced effects can increase memory pressure, especially at high resolutions and high texture settings. More VRAM can provide breathing room for demanding games and longer ownership.
Capacity alone does not determine RT performance. Architecture, bandwidth, software support and the whole GPU still matter. Read 16GB vs 8GB VRAM.
NVIDIA vs AMD for ray tracing
Brand choice should be based on the complete GPU, not one feature label. Compare raster performance, ray tracing, upscaling, VRAM, creator support, power and current Australian pricing.
Read the NVIDIA vs AMD comparison and DLSS 4 vs FSR 4.
Australian ray tracing value
RT value should use the performance mode you actually plan to play. A native 4K score may not represent the settings you will use every day.
Compare current delivered prices in AUD, warranty, power, board size and total system cost. Use GPU performance per dollar Australia and the GPU price tracker.
MyGPU ray tracing benchmark-page checklist
- State the full test system.
- Record the driver, game version and RT preset.
- List resolution and graphics settings.
- Separate raster, native RT, upscaled RT and generated RT.
- Report the base frame rate clearly.
- Include average and low-frame behaviour where available.
- Comment on image quality and latency.
- Add current Australian pricing separately.
- Record the publication or update date.
Common ray tracing benchmark mistakes
- Mixing raster and RT results.
- Comparing native and upscaled tests without labels.
- Presenting generated FPS as native performance.
- Ignoring base frame rate and latency.
- Using one showcase game as a universal ranking.
- Ignoring image quality.
- Using launch prices for current value.
- Ignoring VRAM, power and warranty.
Related MyGPU resources
- GPU Benchmark Hierarchy
- 1080p GPU Benchmarks
- 1440p GPU Benchmarks
- 4K GPU Benchmarks
- DLSS 4 vs FSR 4
- RTX 5080 vs RX 9070 XT
- GPU Comparison Centre
Data and verification policy
Final verdict
Ray tracing benchmarks are useful only when the full rendering pipeline is explained. Native RT, upscaled RT and frame-generated RT answer different questions.
Choose the ray tracing class that matches your resolution and games, then compare image quality, base frame rate, latency, VRAM and current Australian value before buying.
Ray tracing benchmark questions
Frequently asked questions
What is a ray tracing GPU benchmark?
A ray tracing GPU benchmark measures performance with ray-traced lighting, reflections, shadows or global illumination enabled. Useful testing separates native, upscaled and frame-generated results.
Should ray tracing be tested separately from raster performance?
Yes. Ray tracing creates a different workload and can change the order of graphics cards compared with traditional raster rendering.
Does frame generation count as ray tracing performance?
Frame generation improves displayed smoothness but should not be treated as identical to traditionally rendered performance. The native or upscaled base frame rate should be reported separately.
Which resolution is best for ray tracing?
The best resolution depends on the GPU and refresh-rate target. 1080p is easier to run, 1440p balances clarity and performance, and 4K usually requires stronger hardware or upscaling.
How should Australian buyers compare ray tracing GPUs?
Compare native RT, upscaled RT, base frame rate, image quality, latency, VRAM, power, warranty and current delivered prices in AUD.
Next step
Choose the RT mode you will actually use
Start with the base frame rate, then compare image quality, latency and Australian value before choosing the GPU.