Galax GeForce RTX 5060 1-Click OC VS Galax GeForce RTX 5060 EX

At their core, the Galax RTX 5060 1-Click OC and the Galax RTX 5060 EX share an identical silicon foundation: the same 3840 shading units, 120 TMUs, 48 ROPs, base clock of 2280 MHz, and memory speed of 1750 MHz. This means all throughput differences between the two cards come down entirely to a single variable — how aggressively each card boosts under load.

That variable does produce a measurable, if slim, gap. The EX reaches a turbo clock of 2535 MHz versus the 1-Click OC's 2512 MHz — a 23 MHz advantage. Because floating-point throughput, pixel fill rate, and texture rate all scale directly with clock speed on identical hardware, the EX edges ahead across every derived performance metric: 19.47 TFLOPS vs. 19.29 TFLOPS, 121.7 GPixel/s vs. 120.6 GPixel/s, and 304.2 GTexels/s vs. 301.4 GTexels/s. In practical terms, these differences amount to roughly 0.9% across the board — imperceptible in any real gaming or compute workload.

The EX holds a technical edge in this group, but the margin is purely academic. Both cards support Double Precision Floating Point, and their shared architecture means real-world performance will be statistically indistinguishable. The decision between the two should hinge on factors outside raw performance — such as cooling design, price, or power delivery — rather than on these negligible clock speed differences.

Memory is where any meaningful differentiation between these two cards could emerge — but it simply doesn't. Every single memory specification is identical: 8GB of GDDR7 running at an effective 28000 MHz across a 128-bit bus, delivering 448 GB/s of bandwidth. Both also support ECC memory, a feature typically valued in workstation and compute scenarios where data integrity is critical.

The combination of GDDR7 and a 128-bit bus deserves context. GDDR7 is a generational leap in memory efficiency, and its high per-pin bandwidth largely compensates for the relatively narrow bus width. The resulting 448 GB/s figure is competitive for this tier, enabling smooth texture streaming and keeping up with the GPU's compute throughput in most gaming workloads. That said, the 128-bit bus does impose a ceiling — memory-intensive tasks like high-resolution texture packs or large generative AI models will encounter bandwidth constraints that a wider bus would alleviate.

This group is an absolute tie. There is no basis whatsoever to prefer one card over the other on memory grounds — buyers should look elsewhere in the spec sheet to find any differentiating factor.

Feature parity between the 1-Click OC and the EX is total. Both cards run on DirectX 12 Ultimate, which unlocks the full suite of modern rendering features — hardware ray tracing, mesh shaders, and variable rate shading — ensuring neither card is at a disadvantage in current or upcoming titles. DLSS support is present on both, giving users access to AI-driven upscaling that can substantially boost frame rates with minimal visual quality loss, a particularly relevant feature at this GPU tier where native resolution headroom can be limited.

A few other shared capabilities are worth noting. Support for up to 4 simultaneous displays makes either card a capable choice for multi-monitor productivity setups, not just gaming. Intel Resizable BAR support allows the CPU to access the full GPU frame buffer at once, which can yield modest but real performance gains in supported games. Neither card carries LHR restrictions, meaning full compute throughput is available for any workload.

With every feature — from ray tracing to RGB lighting to API support levels — being identical, this group is a complete tie. No feature-based argument can be made for choosing one over the other.

Both the 1-Click OC and the EX offer an identical port layout: one HDMI 2.1b output and three DisplayPort outputs, totaling four display connections — consistent with the four-display limit noted in the Features group. HDMI 2.1b is the latest revision of the standard, bringing support for very high refresh rates at 4K and beyond, as well as improved bandwidth for next-generation displays. The three DisplayPort outputs round out a versatile connectivity package suited to multi-monitor workstation or gaming setups.

Notably absent on both cards is a USB-C port. Some competing cards include a USB-C output that doubles as a DisplayPort connection and can drive VR headsets or newer monitors directly — users with such peripherals will need to rely on adapters. The omission of legacy DVI is expected at this tier and poses no practical concern for modern displays.

Once again, the two cards are in a complete tie. The port configuration is identical in every respect, so connectivity preference offers no reason to choose one over the other.

Underneath their respective coolers, the 1-Click OC and the EX are built on exactly the same foundation: the Blackwell architecture on a 5nm process with 21.9 billion transistors, a 145W TDP, and a PCIe 5.0 interface. The shared TDP means both cards place an equal demand on system power delivery and cooling infrastructure — neither requires a more robust PSU or airflow setup than the other.

Where they diverge is physical size. The EX is measurably larger, at 264 × 145 mm compared to the 1-Click OC's 247 × 131 mm. That 17mm difference in length and 14mm in height is not trivial in practice. The larger EX cooler likely accommodates a bigger heatsink surface area, which can translate to lower operating temperatures or quieter fan operation under sustained load — though thermal performance data is outside the scope of these specs. Conversely, the more compact 1-Click OC has a meaningful advantage for users with smaller mid-tower or mini-ITX cases where GPU clearance is a genuine constraint.

On the fundamentals — architecture, process node, power draw, and connectivity standard — it is a tie. But the 1-Click OC holds a practical edge for space-constrained builds, while the EX's larger footprint may benefit users prioritizing thermal headroom in a spacious case.