AMD Radeon RX 7400 VS Gigabyte GeForce RTX 5060 OC Low Profile

At the heart of the performance gap is raw compute throughput. The Gigabyte RTX 5060 OC Low Profile posts 19.29 TFLOPS of floating-point performance against the AMD RX 7400's 16.49 TFLOPS — a roughly 17% lead that reflects both its significantly higher clock speeds and, more decisively, its 3,840 shading units versus just 1,792 on the RX 7400. More shading units translate directly into greater parallelism, meaning the RTX 5060 can process more rendering workloads simultaneously, which matters in compute-heavy scenes and modern shader-intensive titles.

The one area where the RX 7400 surprisingly pulls ahead is pixel fill rate: its 64 ROPs push 147.2 GPixel/s, compared to only 48 ROPs and 120.6 GPixel/s on the RTX 5060. In practice, ROPs govern how quickly a GPU can write finished pixels to the framebuffer, so the RX 7400 has a structural advantage in high-resolution, high-framerate scenarios where pixel output — not raw compute — is the bottleneck. However, the RTX 5060 counters with a higher texture rate (301.4 vs. 257.6 GTexels/s), meaning it handles texture sampling faster, which is typically the more frequent bottleneck in real game workloads.

Overall, the RTX 5060 OC Low Profile holds a clear performance edge in this group. Its dominant shading unit count, superior TFLOPS, and faster texture throughput outweigh the RX 7400's ROP advantage in most practical scenarios. The RX 7400's pixel-rate lead is notable but represents a narrower real-world benefit compared to the compute and texture advantages the RTX 5060 brings to the table. Both cards support Double Precision Floating Point, so neither has an exclusive edge there.

Both cards share the same 8GB VRAM capacity and 128-bit memory bus width, which means the architectural difference that truly separates them is the memory generation. The RX 7400 uses GDDR6 while the RTX 5060 OC Low Profile steps up to GDDR7 — and the bandwidth numbers make the impact of that generational leap impossible to ignore.

Despite the identical bus width, the RTX 5060 achieves 448 GB/s of memory bandwidth versus just 173 GB/s on the RX 7400 — a 2.6× advantage driven by GDDR7's far higher effective memory speed (28000 MHz vs. 10800 MHz). Memory bandwidth is the pipeline that feeds the GPU's shading units with texture and geometry data; when that pipeline is narrow, even a powerful GPU stalls waiting for data. This means the RTX 5060's compute advantages from the performance group are far less likely to be memory-starved, whereas the RX 7400's lower bandwidth could become a bottleneck at higher resolutions or in memory-intensive workloads like ray tracing and large texture streaming.

The one area of genuine parity is ECC memory support, present on both cards — useful in workstation and compute contexts where data integrity matters. But in terms of memory subsystem performance, the RTX 5060 OC Low Profile holds a commanding and decisive advantage. For users running memory-demanding games at 1080p or 1440p, or leveraging the GPU for creative and AI workloads, that bandwidth gap will translate into a meaningfully smoother and more capable experience.

For the most part, these two cards occupy the same feature tier: both support DirectX 12 Ultimate, OpenGL 4.6, multi-display, ray tracing, and 3D output. The shared DirectX 12 Ultimate compliance is meaningful — it guarantees support for hardware ray tracing, mesh shaders, and variable rate shading across both cards, so neither is at a disadvantage in terms of modern API compatibility.

The standout differentiator in this group is DLSS support. The RTX 5060 OC Low Profile offers it; the RX 7400 does not. DLSS uses AI-based upscaling to render frames at a lower internal resolution and reconstruct them at a higher output resolution, often with minimal visual quality loss. In supported titles, this can substantially boost frame rates — a particularly valuable capability given the RTX 5060's positioning as a mainstream gaming card. The RX 7400's lack of DLSS is a real omission for gamers who want to push performance headroom in demanding scenes. The RTX 5060 also carries a slightly newer OpenCL 3 implementation versus the RX 7400's OpenCL 2.2, which can matter in compute and creative workflows that leverage GPU acceleration.

On the memory access side, the RX 7400 lists AMD SAM (Smart Access Memory) while the RTX 5060 uses Intel Resizable BAR — these are platform-specific implementations of the same underlying concept, enabling the CPU to access the full GPU memory pool for potential performance gains. Neither gives a cross-platform advantage; the benefit depends on the system pairing. Overall, the RTX 5060 OC Low Profile holds the clearer feature edge in this group, with DLSS support being the single most impactful differentiator for gaming use cases.

Connectivity is remarkably close between these two cards. Both offer the same physical port layout: one HDMI output and three DisplayPort outputs, with no USB-C or DVI. For users who run multi-monitor setups, this means up to four simultaneous displays on either card — a capable and practical configuration for both gaming and productivity use cases.

The only distinction worth noting is the HDMI version: the RX 7400 carries HDMI 2.1, while the RTX 5060 OC Low Profile steps up to HDMI 2.1b. The 2.1b revision introduces incremental improvements over standard 2.1 — most notably expanded bandwidth headroom — though the practical impact for typical gaming or display scenarios is marginal for the majority of users at current monitor capabilities.

Taken as a whole, the ports group is essentially a near-tie. The RTX 5060's HDMI 2.1b gives it a technical edge on paper, but the real-world difference is negligible for most use cases today. Users choosing between these cards should not let display connectivity factor meaningfully into their decision — both will handle current and near-future display standards without issue.

The architectural and manufacturing gap between these two cards is substantial. The RX 7400 is built on AMD's RDNA 3.0 architecture using a 6 nm process with 13,300 million transistors, while the RTX 5060 OC Low Profile is based on Nvidia's newer Blackwell architecture, fabbed at 5 nm with 21,900 million transistors. That 65% transistor count advantage reflects a fundamentally larger and more complex die, which is the physical foundation behind the RTX 5060's leads in compute and memory performance seen in earlier groups. The smaller node also generally allows for better power efficiency per transistor, though that benefit is offset here by the RTX 5060's much larger die size.

The most striking contrast in this group is TDP: the RX 7400 draws just 55W, while the RTX 5060 consumes 145W — nearly three times as much. This has real consequences for system builders. The RX 7400 is exceptionally power-efficient and can operate without supplemental power connectors in many configurations, making it ideal for small form factor or low-power builds where thermal and electrical headroom are constrained. The RTX 5060, by contrast, demands a more capable PSU and produces significantly more heat, requiring adequate case airflow. Its 182 mm width versus the RX 7400's 167 mm also means it occupies more physical space, which matters in compact chassis.

Neither card is objectively superior in this group — the right choice depends entirely on the use case. For builders prioritizing low power consumption and small system footprints, the RX 7400 is the clear fit. For those with standard mid-tower builds who want maximum silicon capability and are willing to supply the power budget for it, the RTX 5060's newer architecture and denser transistor count represent a more capable foundation. The PCIe 5.0 interface on the RTX 5060 versus PCIe 4.0 on the RX 7400 is a minor forward-compatibility note, but is not a meaningful differentiator in current real-world workloads.