Asus ProArt GeForce RTX 5070 Ti VS Palit GeForce RTX 4070 Ti Super Infinity 3

On paper, these two GPUs trade blows in a surprisingly tight performance battle. The Palit RTX 4070 Ti Super runs at notably higher clock speeds — 2610 MHz turbo versus 2452 MHz for the Asus RTX 5070 Ti — which translates into its marginally higher pixel rate (250.6 GPixel/s vs 235.4 GPixel/s) and a fractionally better texture rate. In practice, higher pixel fill rate means the GPU can push more pixels per second, which can matter in very high resolution, heavily aliased workloads. Yet despite those clock speed advantages, the 4070 Ti Super's raw floating-point compute (44.1 TFLOPS) barely edges out the 5070 Ti's 43.94 TFLOPS — a difference so small it is statistically irrelevant in real workloads.

Where the RTX 5070 Ti quietly asserts itself is in two areas: shader count and memory bus speed. With 8960 shading units and 280 TMUs against the 4070 Ti Super's 8448 and 264 respectively, the 5070 Ti packs more parallel compute hardware — a gap the higher clocks on the older card almost entirely close. More meaningfully, the 5070 Ti's GPU memory runs at 1750 MHz versus just 1313 MHz on the 4070 Ti Super, a ~33% advantage in memory clock. Faster memory speed reduces bandwidth bottlenecks in memory-intensive scenarios like high-resolution textures and large frame buffers, which can produce real gains the raw TFLOPS figure doesn't capture.

Both cards share the same 96 ROPs and both support Double Precision Floating Point, so neither holds an edge in rasterization depth or compute precision parity. Overall, the performance specs reveal two GPUs that are extremely close in theoretical throughput, with the 4070 Ti Super winning on raw clock speed and pixel rate, while the Asus RTX 5070 Ti holds a meaningful edge in memory speed and a larger shader array. The 5070 Ti has a modest but real structural advantage that is likely to matter more under sustained, memory-bound loads.

Both cards arrive with an identical 16GB VRAM pool and a 256-bit memory bus, so neither has a capacity or bus-width advantage. The decisive split comes from the memory technology underneath. The Asus RTX 5070 Ti uses GDDR7, while the Palit RTX 4070 Ti Super runs on GDDR6X — a generational difference that cascades into every other memory metric.

The practical consequence is stark: the 5070 Ti achieves an effective memory speed of 28000 MHz and a peak bandwidth of 896 GB/s, compared to 21000 MHz and 672 GB/s on the 4070 Ti Super. That is a 33% bandwidth advantage for the 5070 Ti on the same 256-bit bus — a gap that cannot be recovered through clock tuning or overclocking on the older card. In real-world terms, higher memory bandwidth directly feeds the GPU's shaders with data faster, reducing stalls in scenarios involving large textures, high resolutions, ray tracing workloads, and AI-accelerated tasks. The wider the bandwidth pipe, the less often the GPU has to wait for data, which sustains frame rates and compute throughput more consistently under load.

Both cards support ECC memory, which is relevant for professional and compute workloads where data integrity matters. This is a tie on that front. Overall though, the memory category is a clear and meaningful win for the Asus RTX 5070 Ti: same capacity, same bus width, but substantially faster memory technology that delivers a bandwidth advantage large enough to matter across a wide range of demanding use cases.

Across the feature set, these two cards are remarkably well-matched. Both support DirectX 12 Ultimate, OpenGL 4.6, and OpenCL 3 — meaning neither holds a software compatibility advantage for gaming, creative, or compute workloads. Ray tracing, DLSS, 3D output, multi-display support, and Intel Resizable BAR are all present on both cards, and both are free of hash rate limiting (no LHR). For a buyer evaluating feature breadth, the two are effectively equivalent on every technically meaningful spec in this group.

The sole differentiator here is cosmetic: the Asus ProArt RTX 5070 Ti includes RGB lighting, while the Palit RTX 4070 Ti Super does not. For users building aesthetically coordinated systems with RGB-synced components, this is a genuine perk — but it carries no performance or functional implication whatsoever.

As a result, this group is essentially a tie on all substantive features. If RGB lighting matters to a buyer, the Asus ProArt has a minor edge; otherwise, both cards offer an identical feature profile, and neither can claim a meaningful advantage here.

The port layouts on these two cards reflect different philosophies about display connectivity. Both share a single HDMI 2.1 output, but the Palit RTX 4070 Ti Super counters with 3 DisplayPort outputs versus just 2 on the Asus RTX 5070 Ti — giving the Palit a practical edge for users running three or four monitors entirely via DisplayPort. The Asus trades that third DisplayPort for a USB-C port, which the Palit lacks entirely.

The HDMI version difference is worth noting: the Asus ProArt carries HDMI 2.1b against the Palit's HDMI 2.1a. Both versions support 4K at high refresh rates and 8K output, but 2.1b is the more current revision. For the vast majority of display setups this distinction will not surface in day-to-day use, though it is a mild forward-compatibility advantage for the Asus.

The verdict here depends squarely on the user's setup. For a multi-monitor workstation relying on DisplayPort — the more common connector for high-refresh desktop monitors — the Palit RTX 4070 Ti Super has the edge with its three outputs. For users who need USB-C connectivity, whether for a modern monitor, a VR headset, or a compact adapter chain, the Asus RTX 5070 Ti is the only option. Neither card is universally superior; the right choice comes down to the specific display ecosystem a buyer already has.

The generational gap between these two cards is immediately apparent in their architectures: the Asus RTX 5070 Ti is built on Blackwell, Nvidia's newer microarchitecture, while the Palit RTX 4070 Ti Super runs on Ada Lovelace. Both are manufactured on a 5 nm process node, so neither holds a fabrication advantage — the architectural differences are structural rather than lithographic. The 5070 Ti also steps up to PCIe 5.0 versus PCIe 4.0 on the 4070 Ti Super, offering greater theoretical interface bandwidth, though in practice current GPU workloads rarely saturate even PCIe 4.0.

One of the more striking figures in this group is transistor count. Despite being the newer card, the Asus RTX 5070 Ti contains 45,600 million transistors compared to a substantially higher 76,300 million on the Palit 4070 Ti Super. This is a notable structural difference: more transistors do not automatically translate into better performance — it depends heavily on how the die is organized and what those transistors are allocated to — but it does indicate meaningfully different silicon designs beneath the same process node.

On power and physical footprint, the RTX 5070 Ti draws 300W TDP against 285W for the 4070 Ti Super — a modest 15W gap that may influence PSU headroom decisions but is unlikely to be a dealbreaker. The 5070 Ti is also marginally larger at 304 × 126 mm versus 294 × 116 mm, a difference small enough to be inconsequential in most cases but worth checking against tighter chassis constraints. Neither card offers liquid cooling. Overall, the Asus RTX 5070 Ti holds the edge here in architectural generation and interface modernity, while the Palit presents an intriguing difference in silicon composition that makes direct comparisons less straightforward than generation labels alone suggest.