Gigabyte GeForce RTX 5060 Eagle OC VS MSI GeForce RTX 5060 Ventus 2X OC

At the foundation, both the Gigabyte RTX 5060 Eagle OC and the MSI RTX 5060 Ventus 2X OC share identical GPU architectures in terms of shader count (3840 shading units), texture mapping units (120 TMUs), render outputs (48 ROPs), and memory speed (1750 MHz). This means the two cards draw from the same computational pool and will behave virtually identically under sustained, thermally-limited workloads. Both also support Double Precision Floating Point, which matters for certain compute and scientific workloads, though it is a shared trait and not a differentiator here.

The only meaningful separation between these two cards lies in their boost clock speeds. The Gigabyte Eagle OC reaches a turbo of 2550 MHz, compared to 2527 MHz on the MSI Ventus 2X OC — a difference of just 23 MHz, or roughly 0.9%. This small gap flows directly into the derived metrics: the Gigabyte edges out the MSI in pixel rate (122.4 vs 121.3 GPixel/s), floating-point throughput (19.58 vs 19.41 TFLOPS), and texture fill rate (306 vs 303.2 GTexels/s). In practice, these differences fall well below the threshold of perceptible real-world performance variation in gaming or rendering tasks.

The Gigabyte Eagle OC holds a marginal technical edge in this group, solely due to its slightly higher factory boost clock. However, the gap is so narrow that it will not translate into a noticeable difference in frame rates, render times, or compute throughput under real-world conditions. Users choosing between these two cards based on raw GPU performance alone will find them effectively tied, and should weigh other factors — such as cooling, acoustics, or price — more heavily in their decision.

When it comes to memory, the Gigabyte Eagle OC and the MSI Ventus 2X OC are carbon copies of one another. Both feature 8GB of GDDR7 VRAM running at an effective speed of 28000 MHz across a 128-bit bus, yielding identical peak bandwidth of 448 GB/s. There is simply no data point in this group that separates the two cards.

The specifications here are still worth contextualizing. GDDR7 is a generational leap over GDDR6X in terms of efficiency and bandwidth-per-pin, and 448 GB/s is a strong figure for a 128-bit interface — made possible precisely because of GDDR7's higher throughput per lane. This helps offset the narrower bus width compared to higher-end GPUs, keeping memory from becoming a bottleneck in most 1080p and 1440p gaming scenarios. The inclusion of ECC memory support is a shared bonus for users doing GPU compute work where data integrity matters, though it has no impact on gaming performance.

The 8GB VRAM capacity is the one figure worth flagging in practical terms: while it is sufficient for the majority of current titles at the resolutions this card targets, some modern games with high-resolution texture packs are beginning to push against this limit. That said, this is a platform-level consideration that applies equally to both cards — it does not affect the comparison. This group is a complete tie; memory configuration will play no role in choosing between these two products.

Feature parity is total between these two cards. Both support DirectX 12 Ultimate — the current gold standard for gaming APIs, enabling hardware-accelerated ray tracing, mesh shaders, and variable rate shading in supported titles. Alongside this, shared support for ray tracing and DLSS is significant: DLSS in particular is one of the most impactful real-world features on any NVIDIA card, using AI-based upscaling to recover frame rates lost to ray tracing or higher resolutions, often with minimal visual cost.

Neither card carries an LHR (Lite Hash Rate) limiter, though this is largely irrelevant in the current market landscape. More practically, both support up to 4 simultaneous displays and Intel Resizable BAR, the latter allowing the CPU to access the full GPU frame buffer at once rather than in chunks — a feature that provides modest but real performance gains in supported games and requires no user configuration on compatible platforms. Neither card offers RGB lighting, which keeps aesthetics straightforward but may matter to users building a themed system.

With every feature point matching exactly, this group is another complete tie. The software and API ecosystem a buyer gets with the Eagle OC is identical to what comes with the Ventus 2X OC — the choice between them cannot and should not be made on the basis of features alone.

The port configurations on both cards are identical: one HDMI 2.1b output and three DisplayPort outputs, for a total of four physical connections — matching the four-display maximum noted in the features group. Neither card offers USB-C or any legacy outputs such as DVI or mini DisplayPort, which reflects the current industry direction away from older standards.

The quality of these ports matters as much as the quantity. HDMI 2.1b is the latest revision of the HDMI standard, supporting high refresh rates at 4K and beyond, as well as features like Variable Refresh Rate (VRR) — relevant for users connecting to modern televisions or monitors via HDMI. The three DisplayPort outputs, meanwhile, give users flexible multi-monitor options, with each port capable of driving high-resolution, high-refresh-rate displays simultaneously. The absence of USB-C is worth noting for users who own monitors that rely on that connection for video input, as an adapter would be required.

Since every port type, count, and version is identical across both cards, this group is a complete tie. Display connectivity will not be a factor in differentiating the Eagle OC from the Ventus 2X OC.

Underneath their respective coolers, the Eagle OC and Ventus 2X OC are built on identical foundations: the same Blackwell architecture, the same 5nm fabrication process, the same 21.9 billion transistors, and a shared 145W TDP. The PCIe 5.0 interface is also common to both, ensuring neither card is bottlenecked by the bus in any current platform. In terms of what is happening inside the GPU die itself, these two cards are indistinguishable.

The one area where the data diverges is physical size. Both cards share the same 120mm height, but the Gigabyte Eagle OC is 208mm long versus 197mm for the MSI Ventus 2X OC — an 11mm difference. While neither card is particularly large in absolute terms, that gap can be meaningful in compact or mid-tower cases with restricted GPU clearance. The shorter Ventus 2X OC offers a modest but real advantage in tight builds, while the Eagle OC may require a quick clearance check before purchase.

Shared TDP means both cards will draw the same power from the system and generate the same amount of heat at the silicon level — so the difference in physical length is purely about cooler design and chassis compatibility, not thermal output. Overall, the MSI Ventus 2X OC holds a minor edge in this group for its more compact footprint, which could be the deciding factor for small form factor builders, while all other general specifications are a complete tie.