RTX 5080 vs 4080 2026: $200 Cheaper, 20% Faster in 4K

The Short Version, For People Who Value Their Afternoon

Two graphics cards, same 16 GB of VRAM, same TSMC 4N silicon, same 80-class badge, roughly twenty-six months apart. On paper the GeForce RTX 5080 wins before the argument starts. It shipped on January 30, 2025 at a $999 MSRP — a full $200 below the RTX 4080, which arrived on November 16, 2022 asking $1,199. The 5080 carries more CUDA cores, faster memory, newer ray-tracing units, and an exclusive frame-multiplying trick that makes the counter in the corner of your screen do things physics never intended. Cheaper and faster. Close the tab, buy the new one.

That is the brochure talking, and the brochure has never had to explain why a decade-old GeForce GTX 580 outruns this thing in Mafia II. The honest version is narrower and stranger. In pure rasterization — the actual pixels your GPU draws without AI backfill — the 5080 beats the card it replaces by somewhere between 7% and 20% depending on who you believe and which game they ran. The 20% headline is one 4K Cyberpunk benchmark. The median reviewer number is closer to 10-15%, and the grumpiest measured 7%. For a two-year generational gap on a $999 flagship, that is not a leap. It is a step, taken cautiously, while checking the floor for the missing bits.

The one-paragraph answer

If you already own an RTX 4080 or 4080 Super, do not upgrade to the 5080. The raster gain will not survive contact with your own eyes, and you will pay full flagship money for a single feature — Multi-Frame Generation — whose feel you can already approximate with the frame generation your 4080 shipped with. If you are building fresh in 2026 and the 5080 is genuinely at or near $999 while a used 4080 is not dramatically cheaper, buy the 5080 for the GDDR7 bandwidth, the newer display outputs, and the longer software runway. If you care about pre-2015 PhysX games, keep reading, because Blackwell quietly took something away and nobody put it on the box.

Who each card is actually for

The 5080 is for the person building a new high-refresh 4K rig who wants DLSS 4, DisplayPort 2.1b, and the best performance-per-watt NVIDIA has ever shipped in this class. The 4080 — increasingly a used-market proposition in 2026 — is for the bargain hunter who reads a spec sheet, notices the two cards are separated by low double digits in real games, and pockets the difference. It is also, improbably, the better card for a very specific and very online kind of retro enthusiast. We will get there.

The catch nobody printed on the box

Two of them, actually. Blackwell dropped 32-bit CUDA support, which means every 32-bit PhysX title from the golden age of hardware physics now falls back to your CPU and runs like a slideshow. And a slice of early 5080s left the factory with missing ROPs — the render output units — knocking up to 11% off performance and, in the ugliest cases, dropping a $999 card below the older 4080 Super it was supposed to bury. Neither of these is in the marketing. Both are in this article.

Spec Sheet: Blackwell vs Ada, Line by Line

Specifications do not win arguments, but they frame them. Here is the full accounting, drawn from the launch materials and the reviews that stress-tested them. Note the one row that does not change — the process node — because it explains most of what follows. NVIDIA did not get a manufacturing shrink for Blackwell on this tier. Both cards are etched on TSMC's 4N node. When the transistors are the same size, the only ways to go faster are to add more of them, clock them harder, feed them quicker, or cheat with software. Blackwell does all four, modestly.

The silicon: GB203 vs AD103

The 5080 is built around the GB203 die on the Blackwell architecture; the 4080 uses AD103 on Ada Lovelace. The core-count delta is real but restrained: 10,752 CUDA cores against 9,728, an increase of exactly 1,024 — about 10.5% more shaders. On an identical node, that is roughly the raster uplift you would predict before running a single benchmark, and it is roughly the raster uplift the benchmarks delivered. The architecture did not conjure free performance out of nowhere; it added a tenth more hardware and got a tenth more frames. Efficient, honest, unexciting. As Club386 put it, expect "10-15% gains in rasterization" and "20% for ray tracing" — numbers that track the transistor budget almost exactly.

Memory: GDDR7 and the one genuine leap

If the spec sheet has a hero, it is the memory. Both cards hold 16 GB — no change, and we will complain about that shortly — but the 5080 moves to GDDR7 running at 30 Gb/s per pin for 960 GB/s of bandwidth, versus the 4080's GDDR6X at 23 Gb/s and 716 GB/s. That is a 34% bandwidth increase, the single largest generational delta on the sheet, and it is the reason the 5080 stretches its legs at 4K and in bandwidth-hungry ray-traced workloads while shrinking to nothing at 1080p. More lanes on the highway only help if you have enough cars to fill them; at high resolution, you do. At 1080p, you are paying for asphalt no one drives on.

Power, ports, and the 40-watt tax

Nothing is free. The 5080's TGP climbs to 360 W from the 4080's 320 W — a 40-watt, 12.5% increase that roughly matches the performance gain, which is why the two cards land close on performance-per-watt despite Blackwell's efficiency headlines. Where the 5080 pulls clearly ahead is connectivity: it supports DisplayPort 2.1b and HDMI 2.1b, against the 4080's older DisplayPort 1.4a and HDMI 2.1a. If you drive a 4K 240 Hz panel or an ultrawide at triple-digit refresh, DP 2.1b is the row that ages best. And if you plan to run this card near the edge of its power envelope, pairing it with an undervolted CPU keeps the rest of the system out of the thermal way.

Raster Performance: The Uplift Nobody Cheered

Rasterization is the boring, load-bearing truth of a graphics card — the frames it renders the old-fashioned way, no AI interpolation, no upscaling asterisks. It is also where the 5080's story gets deflating, because three separate benchmark sources and three separate reviewers all landed in the same unglamorous neighborhood. Here is the tape.

The 4K native numbers

In Cyberpunk 2077 at 4K with native rasterization — no DLSS, no frame gen — the 5080 posted 151 FPS to the 4080's 125 FPS. That is the 20.8% figure the headline writers, including this one, seized on. It is real, it is repeatable, and it is also the top of the range. Cyberpunk is a bandwidth-hungry title that loves the GDDR7 upgrade, which is exactly why it flatters the 5080 more than most games do. Treat 20% as the ceiling, not the average, and adjust your wallet accordingly.

Synthetic benchmarks agree, quietly

The synthetics tell the same story with less drama. In 3DMark Fire Strike Ultra the 5080 scored 21,658 to the 4080's 17,005, a 24% gap — though Fire Strike is a DirectX 11 relic that rewards raw throughput and should be read as a best case. Drop to the more modern Time Spy Extreme and, per PCGuide, the lead compresses to 16% — 16,069 against 13,622. Meanwhile Corsair, running a broader aggregate, measured a mere 4% higher overall score while the 5080 drew 13% more power — the least flattering read on the sheet, and a useful cold shower after the Cyberpunk number.

The 10-15% consensus, in reviewers' own words

Independent reviewers converged hard, and the 4080 Super — the $999 January-2024 refresh the 5080 effectively replaced on price — is the yardstick most of them used. GamersNexus measured gains "as low as 7-10%, which is about as boring as possible." KitGuru's Dominic Moass called "just a 13% gain over the previous xx80 SKU... hardly cause for wild celebration," adding that the 5080 "is hardly going to set the world alight... it's only a very small step forward." PCWorld's Brad Chacos pinned it at "just 15 percent faster at 4K resolution than the $999 RTX 4080 Super." Three sources, one verdict: the raster uplift is real, small, and entirely predictable from the core count. If you want more, NVIDIA's answer is to stop rendering honestly. Which brings us to the software.

DLSS 4 and Multi-Frame Generation: The Real Divergence

Everything above is why NVIDIA would rather you not look at rasterization. The entire pitch for Blackwell, on this tier, is DLSS 4 and specifically Multi-Frame Generation (MFG) — the 5080-exclusive feature that generates up to three AI frames for every one the GPU actually renders. Where the 4080's DLSS 3 Frame Generation inserts a single interpolated frame (2X), the 5080's MFG inserts three (4X). This is the one row on the spec sheet that the 4080 cannot answer with a driver update, and it is the only reason the generational comparison is interesting at all.

How MFG works, and what it doesn't do

MFG takes two real, rendered frames and manufactures intermediate frames between them using the fifth-gen Tensor cores and optical-flow hardware. The frame counter soars. What does not soar is your input responsiveness: your mouse and keyboard only influence the real frames, so the AI frames are, in the literal sense the critics mean, filler. This is the core of the "fake frames" objection. It is not that the frames look bad — they usually look excellent — it is that a 240 FPS readout built on a 60 FPS render base feels like 60 FPS under your hands while looking like 240 to your eyes. The technology smooths motion; it does not reduce latency. Keep those two ideas in separate pockets and the marketing stops confusing you.

The Cyberpunk numbers that sell the card

With DLSS 4 and 4X MFG enabled in Cyberpunk 2077 at Performance settings, the 5080's frame counter jumped to 183 FPS — from a native path-traced floor of roughly 25 FPS. On paper that is a transformation; in NVIDIA's marketing it is the whole ballgame. Club386 observed "more than double the frame rate in games leveraging MFG," and they are not wrong about the number. Even PCWorld's Brad Chacos, no NVIDIA cheerleader, admitted MFG "feels wonderful" and makes supported games "look and feel so much smoother," while concluding that "the RTX 5080 is all-in on DLSS 4." That is the honest frame: this is a software card wearing hardware's clothes.

The latency asterisk nobody enables MFG without

The catch is the base frame rate. MFG multiplies whatever you feed it, including the lag. Reviewers are unanimous that you want a native base above roughly 60 FPS before switching it on; below that, the interpolation has too little real motion to work with and input latency creeps toward the uncomfortable — measurements ran toward 50 ms in the bad cases. The 5080's ~25-32 FPS native path-traced floor in Cyberpunk is exactly the thin base that makes this a live concern: quadruple 30 FPS and the counter reads 120, but the game still responds like 30. For a single-player showcase, wonderful. For anything you aim in, read the latency numbers twice, pair it with a genuinely high-refresh display, and set your expectations before your reflexes do.

Ray Tracing and Tensor: Where Blackwell Actually Moves

If rasterization is where the 5080 disappoints and MFG is where it distracts, ray tracing and AI compute are where it makes a defensible, hardware-level case. The gains here are the largest real gains on the card, and unlike MFG they do not come with an asterisk about input lag.

RT cores: +41% in the metric that matters

The 5080 carries 84 fourth-generation RT cores rated at 170.6 RT TFLOPS, against the 4080's 80 third-generation cores at 121 RT TFLOPS. That is only four more cores, but a 41% jump in ray-tracing throughput — the newer cores are simply much faster per unit. In practice this shows up as the ~20% ray-tracing uplift Club386 measured, wider than the raster gap and the clearest reason a path-tracing enthusiast might rationalize the upgrade. When you are firing millions of rays per frame in Alan Wake 2 or Cyberpunk's RT Overdrive, that headroom is the difference between a playable native base and one that needs MFG to paper over it.

Tensor cores and the FP4 explosion

The AI hardware is where the generational gap goes vertical. The 5080's 336 fifth-generation Tensor cores deliver 1,801 FP4 TOPS — more than double the 4080's 320 fourth-generation cores and 836 FP4 TOPS. FP4 is a low-precision format tailored to AI inference, and the 5080's pile of it is what powers MFG's frame synthesis and the transformer-model DLSS 4 upscaler. It also makes the 5080 a meaningfully better local-AI card — Stable Diffusion, LLM inference, video upscaling — than its raster numbers suggest. If your workload is half games and half generative AI, this row alone can justify the purchase in a way Cyberpunk cannot.

What it means for real games in 2026

Put together, the RT and Tensor story is the 5080's strongest honest argument: about 20% more ray-tracing performance and double the AI throughput, both delivered in hardware, both durable as game engines lean harder on path tracing and neural rendering. It is not the 2X-everything leap the frame-rate charts imply, but it is real, and it is the part of Blackwell that will still matter in three years. The rasterization gap will not. The AI gap will only widen — which is precisely why NVIDIA keeps pointing your eyes at it.

The Retro Tax: 32-Bit PhysX Is Dead on Blackwell

Here is the section the mainstream GPU reviews buried in paragraph forty, and the one that matters most to anyone reading a retro-gaming site. In pursuit of a cleaner architecture, NVIDIA removed 32-bit CUDA support from the entire RTX 50 series. That sounds like an obscure developer footnote. It is not. It is the mechanism by which hardware-accelerated PhysX worked in a long list of beloved games from roughly 2008 to 2014 — and on the 5080, all of it now falls back to your CPU and dies in the gutter.

What NVIDIA quietly removed

PhysX, in its heyday, was GPU-accelerated eye candy: the swirling debris, the tearing cloth, the volumetric fog you could walk through and disturb. Those effects were compiled as 32-bit CUDA workloads. Ada Lovelace — the 4080 — still runs them on the GPU, at full speed, the way they were meant to run. Blackwell refuses. When GamersNexus flagged it, NVIDIA's response was a masterclass in corporate deadpan: "This is expected behavior as 32-bit CUDA applications are deprecated on GeForce RTX 50 series GPUs." Expected, perhaps. Documented on the box, no.

The games that broke — and the GTX 580 that embarrassed a flagship

GamersNexus tested five 32-bit PhysX titles: Borderlands 2 (2012), Mirror's Edge (2008), Batman: Arkham City (2011), Metro: Last Light (2013), and Mafia II (2010), with Assassin's Creed IV: Black Flag among the others affected. The results are the funniest and most damning numbers in this entire comparison. With PhysX on, the $999 5080 became "the worst performer in the chart." In Mafia II it averaged 30.3 FPS — while a GeForce GTX 580, a card from 2010 that cost a fraction as much, ran the same scene at 56 FPS with GPU acceleration. In Metro: Last Light the 5080 dropped below 10 FPS and became unplayable. GamersNexus' summary belongs in a frame: "A GTX 580 is up to 81% better than NVIDIA's technologically 'outdated' RTX 5080." Over a grand, to lose to a fifteen-year-old card, in games from the exact era this website exists to celebrate.

The workaround, and why the 4080 quietly wins here

There are three mitigations, none clean. You can drop a cheap second-hand NVIDIA card into a spare slot as a dedicated PhysX processor. You can set PhysX to CPU and accept the framerate — which is the fallback that is already failing. Or you can simply own the 4080, which still has 32-bit CUDA and runs every one of these titles the way they shipped. For a certain reader — the one with a 200-game backlog of PhysX-era classics — the older, "slower" 4080 is unambiguously the better card, and it is not close. If you are keeping a retro-forward rig, this is a genuine reason to skip Blackwell entirely, the same way we tell people to skip PCIe 6.0 SSDs until the payoff is real.

The Missing-ROPs Fiasco: A $999 Lottery Ticket

The second thing not printed on the box. Within weeks of launch, users and reviewers discovered that a portion of early RTX 5080s — and 5090s, and 5070 Tis — had shipped with missing ROPs, the render output units that handle the final stage of drawing a pixel. A correct 5080 has 112 ROPs. The defective units had 104. Eight missing units does not sound like much. It measured like much.

What actually went wrong

ROPs handle blending, anti-aliasing resolve, and writing finished pixels to the framebuffer — pure back-end throughput. Losing eight of 112 cost, per GamersNexus' testing, up to 11% in games, with the swing "sometimes 0%, often 3-8%," and a 12% loss in 3DMark Time Spy. Read that last number against the raster section: a defective 5080's Time Spy Extreme score can fall below the RTX 4080 Super it was supposed to replace. You would have paid the new-generation price to buy a downgrade — and unless you benchmarked it, you would never know.

How to check your card in two minutes

This is verifiable at home, which is the only mercy in the story. Do it the day your card arrives, before the return window closes.

# Verify your RTX 5080 is not a missing-ROP unit
1. Install GPU-Z (from TechPowerUp).
2. Open the "Graphics Card" tab and read the ROPs field.
3. Reference spec = 112 ROPs. A defective unit reports 104.
4. 104 ROPs -> up to 11% gaming loss / 12% in Time Spy -> RMA via board partner.
# NVIDIA's official line: ~0.5% of units affected, ~4% average loss. No recall issued.

NVIDIA's response, and what it means for buyers

NVIDIA characterized the defect as affecting roughly 0.5% of units with an average 4% performance loss, and directed affected customers to their board partners for replacement. There was no recall — just an RMA path, during a period when 5080s were selling out in minutes, meaning a replacement could take weeks. Contrast that with the 4080 in 2026: a mature, fully characterized product with none of this launch-lottery risk. The 5080 is the newer card. It is also, statistically and briefly, the riskier purchase. Some early adopters simply overclocked to claw the deficit back; if that is your temperament, our GPU overclocking walkthrough applies cleanly to Blackwell.

Pricing and Availability: The $999 That Mostly Wasn't

The 5080's headline advantage is its price: $999, $200 under the 4080's $1,199 launch. On the MSRP line, the newer card wins outright — more performance, newer features, less money. The problem is that MSRP was, for months, a work of fiction.

MSRP versus the street

NVIDIA priced the 5080 Founders Edition at $999 and the card was, briefly, worth exactly that. Then supply met demand and lost. Founders Editions sold out in minutes; AIB partner cards listed at $1,150 to $1,450+, with 45% premiums over MSRP being routine well into the launch quarter. For much of early 2025, the real question was not "5080 or 4080" but "5080 at scalper pricing, or the 4080 Super you can actually buy at $999." Context matters here: the 4080 Super, launched January 31, 2024 at $999, was the card the 5080 truly replaced on price, and it was frequently available at MSRP when the 5080 was not.

The used-4080 calculus in 2026

By mid-2026 the picture has normalized. The 5080 is broadly available at or near $999 and has dipped below it in promotions. Simultaneously the 4080 and 4080 Super have moved to the used market, where they routinely undercut the 5080 by a meaningful margin. This is the crux of the buying decision: if a used 4080 saves you enough to matter and you do not need MFG, the 10-15% raster gap does not justify the premium. If the 5080 is genuinely at $999 and the used savings are thin, buy new for the warranty, the GDDR7, and the software runway.

What you are really paying for

Strip it down and the $999 buys you three things the 4080 cannot offer at any price: Multi-Frame Generation, DisplayPort 2.1b, and double the FP4 AI throughput. Everything else — raster, VRAM capacity, real-world 4K gaming outside the RT showcases — is a low-double-digit improvement at best. Whether those three exclusives are worth a new-card premium over a cheaper used 4080 is the entire argument, and it is genuinely close. It is the same "new spec, negligible everyday payoff" pattern the industry keeps selling: a shiny standard that arrives years before the software or the monitors ever cash it in.

Five Real-World Scenarios: Which Card Fits Your Build

Specs are abstract; people are not. Here are five concrete builds and the card each one should buy. If you recognize yourself in one, you have your answer and can stop reading.

Buy the RTX 5080 if...

1. You are a 4K path-tracing enthusiast building fresh. You run Cyberpunk RT Overdrive, Alan Wake 2, and every showcase NVIDIA sponsors. The 20% ray-tracing uplift, 960 GB/s bandwidth, and MFG are aimed directly at you. The 151-vs-125 4K Cyberpunk gap is your everyday reality, and MFG's 183 FPS is a genuine improvement to how the game feels to your eyes. Buy the 5080 and enjoy it.

2. You are half-gamer, half-AI-tinkerer. You run local Stable Diffusion, LLM inference, or neural video upscaling between gaming sessions. The 1,801 FP4 TOPS — more than double the 4080's 836 — is the row that pays your electricity bill back. This is the strongest non-gaming case for Blackwell, and it is not close.

Keep or buy the RTX 4080 if...

3. You already own a 4080 or 4080 Super. The single clearest recommendation in this article: do not upgrade. A 10-15% raster gain for full flagship money is the definition of a sidegrade, and every reviewer quoted above agrees. Wait for the RTX 60 series and a real node.

4. You are a value-first 1440p or entry-4K builder. A used 4080 in 2026 undercuts the 5080 meaningfully and delivers within low double digits of its raster performance. Pocket the difference, put it toward a better monitor or CPU, and never notice the missing frames. The 4080 also still receives DLSS 4's transformer upscaler via driver update — it simply lacks MFG.

5. You are a retro-forward PhysX collector. This is the scenario the spec sheet cannot see. If your library leans on Borderlands 2, Batman: Arkham, Metro, Mafia II, or any 32-bit PhysX title, the 4080 runs them correctly and the 5080 runs them worse than a 2010 GTX 580. For this reader, the older card is objectively superior and the newer one is a downgrade you pay extra for.

Buy neither if...

Bonus scenario: you are a competitive esports player. If you live in Valorant, CS2, or Overwatch at 1080p or 1440p, both cards are wild overkill and MFG is actively wrong for you — it adds latency exactly where you need the least. A cheaper card feeding a high-refresh monitor serves you better than either 80-class flagship. Spend the savings on a 360 Hz panel and a tear-free variable-refresh setup instead.

Migration Guide: Switching From a 4080 to a 5080

Suppose you have decided — against the advice above, or because you sold your 4080 for a good price and the math finally worked. Swapping an Ada card for a Blackwell one is mechanically simple and has exactly two gotchas: driver hygiene and the missing-ROP check. Here is the clean procedure.

Should you even bother?

One more time, because it is the most common regret: if your 4080 is working, a 5080 will give you roughly 10-15% more raster, ~20% more ray tracing, and MFG. If you do not run path tracing and do not care about the frame counter, you will struggle to feel the difference in a blind test. Migrate for MFG, for a specific 4K RT title, or for the AI throughput — not for the raw frames. With that said:

The clean-swap checklist

1. Baseline first: run 3DMark Time Spy Extreme on the 4080; record the score (~13,622) and average clocks.
2. Download the latest NVIDIA driver + DDU (Display Driver Uninstaller). Do this BEFORE removing the card.
3. Disconnect from the internet so Windows cannot auto-install a generic driver mid-swap.
4. Boot into Safe Mode. Run DDU -> "Clean and shut down."
5. Swap hardware: remove the 4080, seat the 5080, fully click the 16-pin power connector home.
6. Boot, reconnect internet, install the fresh driver, reboot again.
7. NVIDIA App -> enable Resizable BAR; set DLSS Override to the latest Transformer model.
8. Re-run Time Spy Extreme -> expect ~16,069 (+16% vs the 4080). If it is lower, check ROPs.
9. Stress test 30 min (FurMark or Unigine). Watch temps, clocks, and stability.
10. Only now sell the 4080 -> ideally to someone who wants working 32-bit PhysX.

Driver, DLSS override, and the retro caveat

Two things people miss. First, in the NVIDIA App, set the DLSS override to the latest transformer model so older games get the improved DLSS 4 upscaler — this is the one DLSS 4 benefit the 4080 also receives, so do not treat it as a 5080 exclusive. Second, and this is the one the mainstream guides omit: before you sell the 4080, decide what happens to your PhysX-era library. Once the 5080 is your only card, every 32-bit PhysX title runs on CPU and suffers for it. If those games matter, either keep the 4080 as a dedicated second card or reconsider the entire migration. Selling the card that runs your retro library correctly to buy one that does not is a decision you make with open eyes, not by accident.

Pros and Cons, Tabulated

The full ledger for each card, no hedging. Read both columns before you spend a dollar.

RTX 5080: the ledger

RTX 4080: the ledger

The tiebreakers

When the columns roughly cancel, three factors break the tie. If you run local AI or 4K path tracing, the 5080's double FP4 throughput and 20% RT uplift decide it. If you run pre-2015 PhysX games, the 4080's surviving 32-bit CUDA decides it the other way. And if you found a defective missing-ROP 5080, RMA it or return it — a 104-ROP card at 5080 prices is the worst option on this entire page. Everything else is a rounding error you will not feel in a blind test.

The Machine's Verdict

Strip the frame-generation confetti and this is a 10-15% generational uplift on an identical manufacturing node, sold for $200 less than its predecessor's launch price, with one genuinely exclusive software feature, two of the best real gains hiding in ray tracing and AI compute, and two liabilities — dead 32-bit PhysX and a missing-ROP lottery — that nobody at NVIDIA wants to discuss. It is not a bad card. It is a boring one with an interesting asterisk, and the right recommendation depends entirely on where you are starting from.

If you already own a 4080

Do not upgrade. This is the closest thing to a unanimous verdict in the review world: GamersNexus called the gains "about as boring as possible," KitGuru called 13% "hardly cause for wild celebration," PCWorld measured "just 15 percent." You will pay $999+ to feel almost nothing outside of MFG-enabled showcases, and MFG is not worth a full flagship purchase on its own. Keep the 4080. Revisit at the RTX 60 series, when — one hopes — NVIDIA finally gets a new node and the raster needle actually moves.

If you are buying fresh in 2026

Buy the 5080 if it is genuinely at or near $999 and a used 4080 does not save you enough to matter. You get GDDR7, DisplayPort 2.1b, double the AI throughput, MFG, and a mature-by-now product with the ROP fiasco long since filtered out of the channel. Buy the used 4080 instead if it undercuts the 5080 meaningfully, if you do not need MFG, or if your library includes the PhysX-era classics this site was built to cover. For the halo bracket above both, our RTX 5090 review explains why more money buys a real leap the 5080 simply does not offer.

The bottom line, in one line

The RTX 5080 is $200 cheaper than the 4080 was and up to 20% faster in the friendliest 4K benchmark, but the honest gap is 10-15%, the real story is software, and Blackwell's tax on retro gaming is a scandal the spec sheet will never admit. Buy it new at $999 if you are starting fresh and looking forward. Keep your 4080 if you own one — especially if it still runs the games that made you love this hobby in the first place. The machine has spoken.