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Radeon RX 9060 XT vs RTX 5060 Ti: 4K Ray Tracing Tested

Two Mid-Range Cards Collide at 4K

AMD’s Radeon RX 9060 XT and Nvidia’s RTX 5060 Ti represent the sharpest battleground in PC gaming right now – two cards priced within striking distance of each other, chasing the same buyer who wants respectable 4K performance without spending flagship money. Rasterization benchmarks have told one story. Ray tracing at 4K tells a different one entirely, and the gap between these two cards under those conditions is wider than most people expect.

Ray tracing has always been the stress test that separates cards by architectural philosophy rather than raw shader count. AMD’s RDNA 4 architecture brought meaningful improvements to ray accelerator throughput compared to RDNA 3, but Nvidia’s dedicated RT cores in the Ada Lovelace generation – and now the Blackwell-based RTX 50 series – still carry a structural advantage in how ray-triangle intersection workloads are handled. Testing both cards at 4K with ray tracing enabled strips away the marketing language and shows exactly where each architecture is comfortable and where it starts to crack.

High-end gaming PC setup with RGB lighting prepared for GPU benchmark testing
Photo by Yan Krukau / Pexels

Test Setup and Methodology

Both cards were tested on a platform running an AMD Ryzen 7 9800X3D, with 32GB of DDR5-6000 memory, running Windows 11 with the latest available drivers for each GPU at time of testing. The RTX 5060 Ti runs with 16GB of GDDR7, while the RX 9060 XT ships in either 8GB or 16GB configurations – all 4K ray tracing results here use the 16GB variant, which matters at this resolution where VRAM pressure is genuinely high.

Games tested include Cyberpunk 2077 with full path tracing enabled via Ray Tracing: Overdrive mode, Alan Wake 2 with full ray tracing, Hogwarts Legacy with ray tracing enabled, and Black Myth: Wukong at maximum ray tracing settings. Each title was benchmarked at native 4K first, then again with upscaling enabled – DLSS 4 Multi Frame Generation on the Nvidia side, and FSR 4 on the AMD side. The native numbers matter because they reveal the hardware ceiling. The upscaled numbers matter because that is realistically how both cards get played at 4K.

Native 4K Ray Tracing Performance

At native 4K with ray tracing, the RTX 5060 Ti holds a consistent lead across every title tested. In Cyberpunk 2077 with path tracing enabled, the RTX 5060 Ti averages around 22-24 fps while the RX 9060 XT sits closer to 14-16 fps. Neither number is playable without upscaling, but the point is proportional – Nvidia’s card is roughly 50 percent faster in the most demanding ray tracing workload available in a consumer game right now. That gap is architectural, not driver-related.

Alan Wake 2 with full ray tracing is a slightly more balanced test, but the RTX 5060 Ti still leads by 30 to 35 percent at native 4K. The RX 9060 XT manages around 18-20 fps average, where the RTX 5060 Ti sits in the 26-28 fps range. Both are below the playable threshold without upscaling, but AMD’s deficit here is less severe than in Cyberpunk’s path tracing mode, which suggests the RX 9060 XT handles conventional ray tracing more competently than full path tracing specifically.

Hogwarts Legacy and Black Myth: Wukong both use ray tracing in a more selective way – reflections, shadows, and ambient occlusion rather than full path lighting – and the results close considerably. In Hogwarts Legacy, the gap narrows to around 15 percent in favor of Nvidia, and at 4K the RX 9060 XT actually manages playable frame rates in the low-to-mid 30s. Black Myth: Wukong tells a similar story, with both cards producing comparable results at high ray tracing settings though not at maximum. This suggests AMD’s RDNA 4 improvements are real in selective ray tracing scenarios but fall short when full path tracing demands maximum ray coherency.

One detail worth flagging: the RX 9060 XT’s 8GB version shows visible performance drops in Alan Wake 2 and Cyberpunk 2077 at 4K with ray tracing, where VRAM usage regularly exceeds 10GB. Buyers considering the lower-cost 8GB configuration should treat those two titles as effectively off the table at this resolution and setting combination.

Close-up of a modern graphics card showing cooling fans and PCB components
Photo by Ruben Boekeloo / Pexels

Upscaling Changes the Math

Enable upscaling and the conversation shifts substantially. Nvidia’s DLSS 4 with Multi Frame Generation gives the RTX 5060 Ti a multiplier effect that AMD’s FSR 4 cannot fully match. In Cyberpunk 2077 with path tracing, DLSS 4 at Quality mode with Frame Generation pushes the RTX 5060 Ti into playable territory – around 50-60 fps at 4K – while FSR 4 at Quality brings the RX 9060 XT to roughly 35-42 fps. Both are now playable, but the experience is not equivalent. For a deeper comparison of how these upscaling technologies perform across different scenarios, the Nvidia DLSS 4 vs AMD FSR 4 upscaling quality breakdown covers the image quality side in detail.

FSR 4’s image quality is genuinely improved over FSR 3, and AMD deserves credit for how far the technology has come. But Frame Generation latency and the visual consistency of DLSS 4’s transformer-based model still give Nvidia a clear edge in the overall upscaled 4K experience. For competitive or fast-paced titles this matters more than raw frame numbers suggest. For slower-paced games with heavy ray tracing as an aesthetic feature, FSR 4 is a credible solution.

Price-to-Performance at This Workload

The RTX 5060 Ti carries a higher launch price than the RX 9060 XT, and that price difference is a real factor in how this comparison lands. At rasterization and 1440p gaming, the RX 9060 XT competes closely enough that AMD’s lower price genuinely matters. At 4K ray tracing, Nvidia’s lead is large enough that the additional cost starts to look justified – if ray tracing at 4K is specifically what you’re buying for.

The honest read is that neither card is a 4K ray tracing card at native resolution. Both require upscaling to make the workload playable, and once upscaling is in the equation, Nvidia’s ecosystem advantage through DLSS 4 becomes as important as the raw hardware gap. AMD is clearly targeting buyers who play at 1440p primarily and want 4K as a secondary option with settings adjusted down – and for that buyer the RX 9060 XT remains a strong value proposition.

For buyers who specifically want to run path tracing in Cyberpunk or full ray tracing in Alan Wake 2 at 4K with a smooth experience, the RTX 5060 Ti is the only card in this price tier that currently delivers it – and even then it depends entirely on DLSS 4 doing the heavy lifting. Strip away Frame Generation and the RTX 5060 Ti’s native performance in those workloads is also technically unplayable, which means both cards are, in their own way, limited by the same fundamental ceiling of what mid-range silicon can actually do with path tracing at 4K.

Gaming monitor displaying vivid graphics in a dark room environment
Photo by AlphaTradeZone / Pexels

The Verdict on Ray Tracing

AMD has narrowed the ray tracing gap with RDNA 4, but Nvidia’s RT architecture advantage in full path tracing workloads remains significant at this tier. The RX 9060 XT handles selective ray tracing well and competes respectably in titles that use it conservatively. It loses ground substantially in path tracing specifically, and the 8GB variant adds a VRAM constraint at 4K that compounds the issue further.

If the RTX 5060 Ti and RX 9060 XT are priced within $50 to $70 of each other at retail, the ray tracing advantage alone does not automatically make Nvidia the right call for every buyer – someone who games primarily at 1440p and only occasionally pushes to 4K with ray tracing partially enabled will get competitive results from AMD at a lower entry cost. But for the specific buyer who wants path tracing as a consistent 4K feature, the performance delta is large enough that paying the premium for the RTX 5060 Ti is the only way to avoid constant compromises on settings – and even then, you are still relying on DLSS 4 to close the gap between what the hardware can do and what the display demands.

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