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DLSS vs FSR (2026): Which Upscaler Wins + Best GPU for Each
DLSS 4 still produces the cleaner image. Its transformer model holds thin geometry steady where the older network shimmered, and blind testing in 2026 put it ahead of native TAA and of FSR. FSR 4 at Quality now lands close enough that it is no longer a reason to skip a Radeon.
So the question that costs money is not which upscaler wins on a still frame. It is which one your next card runs, and at what resolution that choice changes what you should buy. Here is the verdict by scenario, the card for each, and the chart that shows why 4K needs an upscaler at all.
At a glance
Upscaler | Best GPU to run it | Quality-mode verdict | Hardware gate | Buy |
|---|---|---|---|---|
DLSS 4 | Quality leader, best motion stability | GeForce RTX cards only | ||
FSR 4 | Comparable at Quality, behind at Performance | Full speed on RDNA 4, backported to RX 7000 |
DLSS 4
- Best GPU to run it
- Quality-mode verdict
Quality leader, best motion stability
- Hardware gate
GeForce RTX cards only
- Buy
FSR 4
- Best GPU to run it
- Quality-mode verdict
Comparable at Quality, behind at Performance
- Hardware gate
Full speed on RDNA 4, backported to RX 7000
- Buy
Where each one wins
Scenario | DLSS 4 | FSR 4 | Winner |
|---|---|---|---|
1080p competitive, frame gen off | Cleaner, but both are overkill here | Fine at Quality | |
1440p high-refresh raster | Slight edge on motion stability | Close enough to keep the money | |
1440p with ray tracing on | Decisive | Not competitive | |
4K single-player AAA | The reason 4K works at all | Usable but behind | |
Entry budget, DLSS specifically | Cheapest transformer-model card | Not applicable | |
Streaming or creator work | NVENC AV1 plus CUDA | No equivalent |
1080p competitive, frame gen off
- DLSS 4
Cleaner, but both are overkill here
- FSR 4
Fine at Quality
- Winner
1440p high-refresh raster
- DLSS 4
Slight edge on motion stability
- FSR 4
Close enough to keep the money
- Winner
1440p with ray tracing on
- DLSS 4
Decisive
- FSR 4
Not competitive
- Winner
4K single-player AAA
- DLSS 4
The reason 4K works at all
- FSR 4
Usable but behind
- Winner
Entry budget, DLSS specifically
- DLSS 4
Cheapest transformer-model card
- FSR 4
Not applicable
- Winner
Streaming or creator work
- DLSS 4
NVENC AV1 plus CUDA
- FSR 4
No equivalent
- Winner
Read the matrix as a hardware decision rather than a software one. Nobody buys an upscaler. You buy a card, and the upscaler comes attached to it, which is why the row that matters is the one describing how you play. If you want the raster-versus-ray-tracing argument in full, we broke the two 1440p cards apart separately. The charts below cover the same ground with numbers.
Benchmarks
Rasterised 1440p with no ray tracing and no upscaling. The baseline before either upscaler enters the picture.
- 95 FPS
- 85 FPS
The heaviest ray-tracing workload in the basket, at native resolution, before upscaling.
- 35 FPS
- 22 FPS
A ten-game average at native 1440p for the two mainstream 16 GB cards.
- 142 FPS
- 134 FPS
The same card and the same scene, native against DLSS 4 Quality with Multi Frame Generation.
- 28 FPS
- 100 FPS
How we picked
Resolution first, always. The upscaler question only has a right answer once you know what panel the card is feeding. At 1080p either Quality mode is more than the scene needs. At 1440p the difference is visible if you look for it. At 4K the upscaler stops being a preference and becomes the thing that makes the resolution run.
VRAM floor second. Every card here carries 16 GB, and that is not a coincidence. Both mainstream chips in this article ship in 8 GB versions under nearly identical names, and both of those cards hit a texture cliff at 1440p that no upscaler repairs. If you want the long version, we wrote up the VRAM floors by resolution.
Upscaler support third. FSR 4 runs at full speed on RDNA 4 because that silicon has the FP8 path it was written against. AMD backported FSR 4.1 to the RX 7000 series in 2026 on an INT8 path instead, and reports suggest the image-quality gain carries over while the performance cost goes up. RDNA 2 owners are reportedly waiting until 2027. DLSS 4 has no equivalent complication: every GeForce RTX card gets the transformer model.
Ray tracing last, and only if your library uses it. Cyberpunk, Alan Wake 2 and Indiana Jones make the RT gap decisive. A library of competitive shooters and older AAA makes it a number you will never see. Our broader framework for matching a card to a display lives in the GPU and display buying guide.
Best overall for DLSS 4: ASUS TUF RTX 5070 Ti OC

Specs
Chip | GeForce RTX 5070 Ti (Blackwell) |
VRAM | 16 GB GDDR7, 256-bit |
Upscaling | DLSS 4 transformer model |
Frame gen | Multi Frame Generation up to 4x |
Interface | PCIe 5.0, HDMI/DP 2.1 |
Slots | 3.125-slot |
Target | 1440p ultra, entry 4K |
Warranty | 3 years |
Chip
GeForce RTX 5070 Ti (Blackwell)
VRAM
16 GB GDDR7, 256-bit
Upscaling
DLSS 4 transformer model
Frame gen
Multi Frame Generation up to 4x
Interface
PCIe 5.0, HDMI/DP 2.1
Slots
3.125-slot
Target
1440p ultra, entry 4K
Warranty
3 years
What it does well
This is the cheapest card that runs the transformer model at the resolution where DLSS Quality genuinely holds up. The jump from the old convolutional network was not a percentage. Thin geometry that used to crawl and shimmer as the camera panned now sits still, and that is the artifact people notice.
Ray tracing is the second reason to be here. At 1440p with full path tracing this card lands around 35 fps native against 22 on the Radeon, and once DLSS Quality goes on, that gap is the difference between a setting you use and a setting you read about. 16 GB clears the 1440p floor with headroom for texture packs, and NVENC AV1 covers streaming without a second machine.
It also sits in the sweet spot of the current stack. We compared it against the tier above in our 5070 Ti versus 5080 breakdown, and for 1440p the answer was not close.
What you give up
You pay a real premium over the Radeon for raster performance that is close to a wash. At 1440p ultra without ray tracing this card runs about 95 fps in Cyberpunk against 85 on the 9070 XT. That is a gap you can measure and rarely feel.
Street pricing has run well above where this card was positioned at launch, and it has stayed there. The 3.125-slot cooler is also deep enough to be a real constraint in compact cases, so check clearance before you commit.
Who it's for
Buy this if you game at 1440p on a high-refresh panel, your library includes path-traced titles, or you do any creative work where CUDA shows up. If none of those three are true, the Radeon below saves you money for the same frame rate.
Best for FSR 4: Sapphire Pulse RX 9070 XT

Specs
Chip | Radeon RX 9070 XT (RDNA 4) |
VRAM | 16 GB GDDR6, 256-bit |
Upscaling | FSR 4 on the FP8 path |
Frame gen | FSR frame generation, Fluid Motion Frames |
Interface | PCIe 5.0, dual HDMI, dual DP |
Target | 1440p high-refresh raster |
Manufacturer SKU | 11348-03-20G |
Chip
Radeon RX 9070 XT (RDNA 4)
VRAM
16 GB GDDR6, 256-bit
Upscaling
FSR 4 on the FP8 path
Frame gen
FSR frame generation, Fluid Motion Frames
Interface
PCIe 5.0, dual HDMI, dual DP
Target
1440p high-refresh raster
Manufacturer SKU
11348-03-20G
What it does well
FSR 4 is the first AMD upscaler that belongs in a buying recommendation rather than a footnote, and this is the card that runs it on the hardware it was written for. Quality mode at 1440p closed a gap that had persisted across three AMD generations. Performance mode is still where the seams show, but at 1440p you have no reason to drop below Quality.
Raster is where the value lives. Around 85 fps at 1440p ultra in Cyberpunk puts it within about ten percent of a card that costs meaningfully more, and the 16 GB frame buffer sits on a full 256-bit bus rather than the narrow one the mainstream cards use. Sapphire's Pulse cooler stays quiet under sustained load, which is not true of every board at this tier.
If you are shopping this resolution generally, our 1440p GPU picks put it in context against the rest of the stack.
What you give up
Ray tracing, and it is not close. Under full path tracing at 1440p this card lands around 22 fps against 35 on the Nvidia equivalent. No upscaler setting rescues a starting point that low, and the honest read is that path tracing is a feature you are choosing not to buy.
FSR frame generation also trails on latency, reportedly because Nvidia runs the equivalent on dedicated silicon rather than competing for shader time. And there is no CUDA, which ends the conversation if Blender, DaVinci or Stable Diffusion are part of your week. Stock on this SKU has been thin since launch.
Who it's for
Buy this if you play at 1440p, your library is mostly raster, and you have no creative workload. You get the same frame rate as the Nvidia card in the games you actually play and keep the difference.
Best budget for DLSS 4: ASUS Prime RTX 5060 Ti OC (16 GB)

Specs
Chip | GeForce RTX 5060 Ti (Blackwell) |
VRAM | 16 GB GDDR7, 128-bit |
Upscaling | DLSS 4 transformer model |
Frame gen | Multi Frame Generation |
Cooling | Axial-tech fans, dual BIOS |
Slots | 2.5-slot, SFF-ready |
Target | 1080p ultra, 1440p high |
Warranty | 3 years |
Chip
GeForce RTX 5060 Ti (Blackwell)
VRAM
16 GB GDDR7, 128-bit
Upscaling
DLSS 4 transformer model
Frame gen
Multi Frame Generation
Cooling
Axial-tech fans, dual BIOS
Slots
2.5-slot, SFF-ready
Target
1080p ultra, 1440p high
Warranty
3 years
What it does well
This is the cheapest route to the transformer model that does not land you on an 8 GB card, and it is the tier where DLSS does the most work. The silicon needs the help here in a way the 5070 Ti does not, so Quality mode is the difference between holding 1440p high and dropping settings.
The 16 GB frame buffer is the other half of the argument. It removes the texture cliff that ends 8 GB cards at 1440p, which is the failure mode that turns a cheap card into a two-year card. The 2.5-slot Prime cooler is quiet and short enough for small builds, with a dual BIOS if you want the quieter profile.
What you give up
The bus is 128-bit, so memory bandwidth is the ceiling once scenes get busy. Raster performance sits only a few percent ahead of the cheaper Radeon, about 142 fps against 134 on a ten-game 1440p average, which is not a gap worth paying for on its own.
Path tracing is not a realistic setting on this card at any resolution. Treat the ray-tracing checkbox as a light-touch option rather than a reason to buy. And the 8 GB version of this chip ships under a nearly identical name, so confirm the SKU before you check out.
Who it's for
Buy this if you play at 1080p high-refresh or entry 1440p and you specifically want DLSS quality or NVENC for streaming. If neither of those matters, the budget-tier head to head lays out the cheaper path.
Best budget for FSR 4: XFX Swift RX 9060 XT OC (16 GB)

Specs
Chip | Radeon RX 9060 XT (RDNA 4) |
VRAM | 16 GB GDDR6, 128-bit |
Upscaling | FSR 4 on the FP8 path |
Frame gen | FSR frame generation, Fluid Motion Frames |
Cooling | Triple fan |
Outputs | HDMI, dual DisplayPort |
Target | 1080p ultra, 1440p high |
Manufacturer SKU | RX-96TS316BA |
Chip
Radeon RX 9060 XT (RDNA 4)
VRAM
16 GB GDDR6, 128-bit
Upscaling
FSR 4 on the FP8 path
Frame gen
FSR frame generation, Fluid Motion Frames
Cooling
Triple fan
Outputs
HDMI, dual DisplayPort
Target
1080p ultra, 1440p high
Manufacturer SKU
RX-96TS316BA
What it does well
This is the cheapest card that runs FSR 4 on RDNA 4 silicon, which is what makes the budget tier interesting rather than a compromise. A year ago the AMD entry at this price came with an upscaler you turned off. It does not any more.
16 GB at this price is the headline, and it is what keeps the card usable at 1440p as texture budgets grow. Native raster lands within about five percent of the Nvidia card at the same tier while costing noticeably less, and the triple-fan Swift cooler is a real cooler rather than a cost-down shroud stretched over a small heatsink.
What you give up
Ray tracing again, and at this tier it is closer to absent than behind. FSR 4 at Performance mode also still shows artifacts that DLSS 4 does not, so at 1440p you want to stay on Quality and accept the frame rate that comes with it.
There is no NVENC AV1 for streaming and no CUDA for creative apps. An 8 GB version of this chip also exists under a name that differs by two characters, and buyers have flagged how easy it is to click the wrong one. It is the same trap as the Nvidia 8 GB card and it should be avoided at any price.
Who it's for
Buy this if you play at 1080p or entry 1440p, your library is raster, and you want the VRAM insurance more than the feature set. It is the most card per dollar in this article.
Best for 4K: ASUS TUF RTX 5080 OC

Specs
Chip | GeForce RTX 5080 (Blackwell) |
VRAM | 16 GB GDDR7, 256-bit |
Upscaling | DLSS 4 transformer model |
Frame gen | Multi Frame Generation up to 4x |
Interface | PCIe 5.0, HDMI/DP 2.1 |
Slots | 3.6-slot |
Target | 4K 120 with DLSS Quality |
Warranty | 3 years |
Chip
GeForce RTX 5080 (Blackwell)
VRAM
16 GB GDDR7, 256-bit
Upscaling
DLSS 4 transformer model
Frame gen
Multi Frame Generation up to 4x
Interface
PCIe 5.0, HDMI/DP 2.1
Slots
3.6-slot
Target
4K 120 with DLSS Quality
Warranty
3 years
What it does well
4K is where the whole upscaler argument stops being academic. DLSS Quality at 4K renders internally at 1440p, which gives the reconstruction real data to work with, and the output is close enough to native that the debate mostly ends. The chart above says it plainly: Alan Wake 2 with path tracing goes from about 28 fps native to roughly 100 with DLSS 4 Quality and Multi Frame Generation.
AMD has no card in this tier this generation, so the vendor question resolves itself. This is also the one place where frame generation earns its keep without argument, because a 4K single-player title at 60 native is exactly the base rate that interpolation flatters rather than exposes.
For the rest of the high end, our 4K picks cover the tiers above and below.
What you give up
16 GB is adequate rather than generous for a 4K card in 2026, and it is the spec most likely to age badly here. The gap to the tier above is also large enough that this card gets described as a mid-stack part wearing a halo badge, which is a fair reading of where it sits.
Be careful with the frame-generation numbers, including the one in our own chart. The native base under path tracing is in the high twenties. Interpolation turns that into a smooth-looking 100, but the input latency belongs to the low number, not the high one. A 3.6-slot cooler also needs a case with real clearance.
Who it's for
Buy this if you run a 4K panel, play single-player AAA with the sliders up, and want path tracing on. If you are doing 32 GB-class productivity work, look higher up the stack instead.
Bottom line
DLSS 4 wins the image-quality contest and FSR 4 no longer loses it badly. That is the honest summary, and it means the upscaler is rarely the deciding factor on its own.
If you play at 1440p with a raster library, buy the Sapphire Pulse RX 9070 XT and keep the difference. If your library is path-traced or you do creative work, buy the ASUS TUF RTX 5070 Ti OC. If you are on a budget and want DLSS specifically, the ASUS Prime RTX 5060 Ti OC (16 GB) is the entry point. If you want the most raw card for the money, take the XFX Swift RX 9060 XT OC (16 GB).
If you run a 4K panel, the ASUS TUF RTX 5080 OC is the only sensible answer under a flagship budget, and DLSS Quality is what makes that resolution work. Everything above it is covered in our high-end GPU picks.
One rule survives every tier: frame generation turns 60 into 120, and it never turns 30 into 120. Compare cards on native or Quality-mode numbers, then add the interpolated frames on top mentally.
FAQ
Is DLSS better than FSR in 2026?
On image quality, yes, but the margin is smaller than it has ever been. DLSS 4's transformer model leads on motion stability, and blind testing in 2026 placed it ahead of native TAA and of FSR. FSR 4 at Quality is comparable in most titles and only falls clearly behind at Performance mode. For most buyers the upscaler is a tiebreaker, not the decision.
Does FSR 4 only work on RDNA 4 GPUs?
Not any more. FSR 4 launched as an RDNA 4 feature because it targets the FP8 instruction path on those cards, but AMD released FSR 4.1 for the RX 7000 series in 2026 using an INT8 path instead, with coverage across several hundred games. Reports suggest the image quality carries over while the performance cost is higher than on RDNA 4. RDNA 2 support is expected later.
Do you need an Nvidia GPU to use DLSS?
Yes. DLSS runs on Nvidia's tensor hardware and there is no path to it on a Radeon or an Arc card. If DLSS specifically is what you want, the cheapest sensible entry is the ASUS Prime RTX 5060 Ti OC (16 GB), and the 1440p answer is the ASUS TUF RTX 5070 Ti OC. AMD owners get FSR, Intel owners get XeSS on the XMX path.
Is FSR 4 as good as DLSS 4 at 4K?
Close at Quality, behind at Performance. At 4K both upscalers render internally at a high enough resolution that reconstruction has plenty to work with, so the gap narrows. The practical problem is not the upscaler, it is that AMD has no card in the 4K tier this generation, so a 4K buyer is choosing between Nvidia SKUs and gets DLSS by default.
Should you turn on frame generation with DLSS or FSR?
Only when your native frame rate is already above 60. Frame generation is a smoothness multiplier, not a performance level: it turns 60 into 120 and it never turns 30 into 120. Below a 60 fps base you get visible artifacts on UI elements and ghosting on fast motion, plus added system latency that the low base rate makes worse.
Does upscaling hurt image quality in competitive shooters?
Quality mode is fine, and frame generation is not. Competitive players run low settings at high frame rates where upscaling has little to do, and the added system latency from frame generation is exactly the cost that game cannot absorb. Leave frame generation off on either vendor for Counter-Strike, Valorant and similar titles, and use the upscaler only if you need the headroom.
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