Asus Prime GeForce RTX 5060 Ti OC Edition 16GB VS KFA2 GeForce RTX 5060 Ti EX 8GB

In terms of raw GPU performance, the Asus Prime RTX 5060 Ti OC and the KFA2 RTX 5060 Ti EX are in perfect lockstep. Both cards share identical clock speeds — a base of 2407 MHz and a boost of 2617 MHz — and consequently produce the exact same throughput figures: 24.12 TFLOPS of floating-point performance, a pixel rate of 125.6 GPixel/s, and a texture rate of 376.8 GTexels/s. This is not a coincidence; both are built on the same GPU die with the same shader, TMU, and ROP counts (4608 / 144 / 48 respectively), running at the same memory speed of 1750 MHz.

What this means in practice is that neither card holds a compute or rendering throughput advantage over the other. Frame rates in GPU-bound workloads, shader throughput in creative applications, and rasterization output will all be functionally identical between these two models. The shared support for Double Precision Floating Point (DPFP) also puts them on equal footing for any compute tasks that require it, though DPFP throughput on consumer GeForce cards is typically limited and not a primary differentiator for gaming.

For this performance group, the verdict is a clear tie. Every measurable GPU compute and throughput metric is identical. Any real-world performance difference between these two cards would have to come from outside this spec group — such as memory capacity, cooling behavior under sustained load, or power delivery — not from the core GPU engine itself.

The memory subsystem is where these two otherwise identical cards diverge in a meaningful way. Both use GDDR7 modules on a 128-bit bus running at an effective speed of 28000 MHz, delivering 448 GB/s of bandwidth — so the pipeline feeding the GPU is equally fast on both cards. The critical difference is capacity: the Asus Prime OC carries 16GB of VRAM, while the KFA2 EX ships with 8GB.

That 2x gap in VRAM has tangible real-world consequences. At higher resolutions and with texture-heavy assets, games and creative applications increasingly demand more than 8GB — modern titles at 4K with high texture packs, ray tracing enabled, or with multiple mods loaded can breach that ceiling, causing the system to spill over to slower system RAM and resulting in stutters or frame drops. The Asus Prime's 16GB buffer provides significantly more headroom for future titles, large AI model inference workloads, and professional GPU compute tasks where dataset size matters.

The memory group advantage goes clearly to the Asus Prime RTX 5060 Ti OC Edition. With double the VRAM and no tradeoff in speed or bus width, it is the more future-proof and versatile choice for users who push resolution, texture quality, or run memory-intensive workloads — making this the single most important differentiator between these two cards.

Across the feature set, these two cards are remarkably aligned. Both support DirectX 12 Ultimate, ray tracing, and DLSS — the trifecta that defines a modern, capable gaming GPU. DirectX 12 Ultimate ensures compatibility with the full suite of current-gen rendering features, while DLSS provides AI-powered upscaling that can meaningfully boost frame rates with minimal visual quality loss. Neither card supports XeSS, but that is expected on NVIDIA hardware and not a practical omission for most users.

Both also support up to 4 simultaneous displays and include Intel Resizable BAR, which allows the CPU to access the full GPU frame buffer at once — a feature that can yield modest but measurable performance gains in supported titles. The absence of LHR (Lite Hash Rate) on both is a non-issue for gaming-focused buyers.

The only differentiator in this group is RGB lighting: the KFA2 EX has it, the Asus Prime OC does not. This is purely aesthetic — it has zero impact on performance — but for users building a themed system where visual cohesion matters, it gives the KFA2 EX a minor stylistic edge. Those who prefer a cleaner, no-frills look may actually favor the Asus Prime's understated design. Functionally, this group is essentially a tie, with the only distinction being a cosmetic one.

Port configurations are identical on both cards: one HDMI 2.1b output and three DisplayPort outputs, for a total of four connections — matching the four-display limit noted in their feature specs. Neither card offers USB-C, DVI, or mini DisplayPort outputs, which is standard for modern mid-range GeForce cards where legacy and alternate connector types have been largely phased out.

The presence of HDMI 2.1b is worth noting — it supports up to 10K resolution, high frame rate 4K output, and Variable Refresh Rate (VRR), making it fully capable of driving the latest high-refresh TVs and monitors without any adapter. The three DisplayPort outputs similarly support current-generation displays at high resolutions and refresh rates, giving multi-monitor users plenty of flexibility without needing a hub or splitter.

This group is a complete tie. Every port type, count, and version is identical across both cards, so connectivity cannot be a deciding factor between them.

At the silicon level, these two cards are built from the same foundation: both use NVIDIA's Blackwell architecture, manufactured on a 5nm process with 21.9 billion transistors, and both operate at a 180W TDP. They also share PCIe 5.0 connectivity, ensuring maximum bandwidth headroom with current and next-generation motherboards. None of these shared specs offer any differentiation — the underlying chip and its power envelope are identical.

Where the two cards do diverge is in their physical dimensions. The Asus Prime OC is wider and shallower at 304 mm × 120 mm, while the KFA2 EX is shorter but taller at 267 mm × 142.5 mm. In practical terms, the Asus Prime's longer footprint may be a concern in compact cases with limited GPU clearance, whereas the KFA2 EX's extra height could conflict with case side panels or adjacent PCIe slots in tighter builds. Neither profile is universally better — the right fit depends entirely on the user's case.

Overall, this group is functionally a tie on every spec that affects performance or compatibility with the platform. The only consideration here is physical fit: buyers with smaller or more constrained cases should cross-reference their case's maximum GPU length and available slot clearance against each card's specific dimensions before deciding.