Yeston Sakura Atlantis GeForce RTX 5080 VS Yeston Sakura GeForce RTX 5080

In terms of raw performance, the Yeston Sakura Atlantis RTX 5080 and the Yeston Sakura RTX 5080 are completely identical across every measurable metric. Both cards share the same 2295 MHz base clock and 2700 MHz boost clock, the same 10,752 shading units, 336 TMUs, and 112 ROPs, and both deliver 58.06 TFLOPS of floating-point performance alongside a 907.2 GTexels/s texture fill rate and 302.4 GPixel/s pixel rate. Memory is clocked at 1875 MHz on both cards as well.

What do these numbers mean in practice? The 2700 MHz turbo clock places both cards at the high end of the RTX 5080 stack, translating to strong rasterization throughput for 4K gaming and demanding creative workloads. The 58.06 TFLOPS figure is particularly relevant for AI-accelerated tasks and ray tracing, while the high TMU count supports sharp, high-resolution texture rendering with minimal bottlenecking. Both cards also support Double Precision Floating Point, which matters for scientific or professional compute applications, though it is a less critical feature for gaming.

This is a clear tie in the Performance category. There is no differentiator whatsoever between the two variants on any spec provided. Any distinction between these two products must come from other specification groups such as cooling, design, or connectivity — not from GPU performance.

The memory configuration on both cards is a mirror image: 16GB of GDDR7 across a 256-bit bus, with an effective speed of 30,000 MHz yielding 960 GB/s of bandwidth. GDDR7 is a meaningful generational leap over GDDR6X, bringing higher data rates at improved power efficiency, and 960 GB/s of peak bandwidth is substantial enough to keep the GPU fed even in the most texture- and resolution-heavy scenarios.

The 256-bit bus width is a practical choice at this VRAM capacity — paired with GDDR7 speeds, it avoids the bandwidth starvation that narrower buses can cause in high-resolution workloads. The 16GB frame buffer is well-suited for 4K gaming with high-resolution texture packs and holds up reasonably well for lighter professional tasks. ECC memory support on both cards is a noteworthy inclusion, adding error-correction capability that reduces data corruption risk in compute and workstation contexts — a feature typically associated with professional-grade hardware.

As with the Performance group, this is an unambiguous tie. Every memory specification is identical between the Sakura Atlantis and the Sakura RTX 5080. Neither card holds any memory advantage over the other, and buyers should look to other specification groups to find meaningful differences between the two variants.

Feature parity continues across both cards. The most consequential shared capabilities are DirectX 12 Ultimate support and ray tracing, which together unlock the full suite of modern rendering techniques — hardware-accelerated ray tracing, mesh shaders, and variable-rate shading — without compromise on either variant. DLSS support is equally important for real-world gaming, enabling AI-driven upscaling that can dramatically recover frame rates in ray-traced or high-resolution workloads.

Both cards support up to 4 simultaneous displays and include multi-display technology, making them viable for productivity-focused multi-monitor setups alongside gaming use. Intel Resizable BAR is present on both, allowing the CPU to access the full VRAM pool at once rather than in smaller chunks — a feature that can yield modest but measurable performance gains in supported titles. Neither card carries LHR restrictions, meaning full compute throughput is available without limitation. RGB lighting is also confirmed on both.

Once again, this group yields a definitive tie. The Sakura Atlantis and the Sakura RTX 5080 share an identical feature set with no omissions or additions on either side. Shoppers differentiating between these two models will need to look beyond software and API capabilities entirely.

Both cards offer the same output configuration: 3 DisplayPort and 1 HDMI 2.1b port, totaling four display outputs — which aligns with the four-display limit noted in the Features group. The DisplayPort outputs are the workhorses of a multi-monitor setup, ideal for high-refresh-rate gaming panels, while the single HDMI 2.1b port covers connection to modern TVs and projectors. HDMI 2.1b specifically supports high bandwidth for 4K high-refresh or 8K content delivery.

Notably, neither card includes a USB-C output, which rules out direct connection to USB-C or Thunderbolt monitors without an adapter. The absence of legacy DVI and mini DisplayPort outputs is expected at this tier and has no practical downside for modern display ecosystems.

The Ports group is another tie — the Sakura Atlantis and the Sakura RTX 5080 are physically interchangeable in terms of display connectivity. No advantage exists on either side, and users with identical display setups will have the exact same experience regardless of which variant they choose.

Sharing the same Blackwell architecture built on a 5nm process with 45.6 billion transistors, both cards represent the same generation of silicon. The 5nm node is significant here — it enables higher transistor density and better power efficiency relative to older processes, which matters given the 360W TDP both cards carry. That power envelope demands a capable PSU and adequate case airflow, and neither variant offsets this with liquid cooling, as both rely exclusively on air cooling solutions.

PCIe 5.0 support on both cards is forward-looking — while current workloads rarely saturate even PCIe 4.0 bandwidth, the interface headroom ensures these cards remain compatible with next-generation platform builds without becoming a bottleneck. The shared TDP also means buyers face identical power supply and thermal management requirements whichever variant they choose.

The only measurable difference in this group is physical size: the Sakura Atlantis measures 343 × 153 mm versus the Sakura's 345 × 154 mm. This 2mm discrepancy in both dimensions is negligible in practical terms and is unlikely to affect case compatibility in any real-world scenario. Overall, this group is effectively a tie, with the marginal size difference carrying no meaningful advantage for either card.