NVIDIA GeForce RTX 3060 8 GB GA104

The NVIDIA GeForce RTX 3060 8 GB GA104 occupies a specific and somewhat unusual position in the GeForce 30-series lineup. Built on the Ampere architecture with an 8 nm process from Samsung, this card is a distinct variant of the more common RTX 3060, differentiated primarily by its memory configuration and chip selection. The data indicates a hardware profile aimed at 1080p gaming, but with architectural features that keep it relevant for modern workloads.

Benchmark Performance

The benchmark data for this GPU places it squarely in the mid-range tier, holding a percentile rank of 50 among all GPUs. This indicates that in a direct comparison of aggregate performance, it outperforms half of the graphics cards in the database while trailing the other half. This is a classic positioning for a mainstream part, offering a balanced level of compute capability that is neither entry-level nor high-end.

The core compute metrics reinforce this positioning. The card provides 12.74 TFLOPS of FP32 compute, which is the primary measure of single-precision floating-point performance used in traditional gaming and general compute tasks. This figure is substantial enough to handle demanding titles at standard resolutions without significant bottlenecking. The FP16 performance is identical at 12.74 TFLOPS on a 1:1 basis, which is a characteristic of the Ampere architecture’s design for certain workloads that can utilize reduced precision. The texture rate of 199.0 GTexel/s and pixel rate of 113.7 GPixel/s are consistent with its 112 TMUs and 64 ROPs, respectively, suggesting a balanced design that can feed the render output units without excessive stalls in most scenarios.

When interpreting these raw figures, the card's capability becomes clear. The FP32 throughput is the key indicator for rasterized gaming performance. A score in the 12.7 TFLOPS range allows for high frame rates in most esports and older titles, and high settings in modern AAA games, provided the resolution is kept at 1080p. The 1:1 FP16 ratio is notable; it means the card does not have a dedicated, faster path for half-precision compute, which is sometimes used in AI inference and certain content creation applications. This keeps the card more focused on pure rasterization performance. The overall score composition suggests a GPU that delivers smooth, reliable performance in its intended resolution class, with the architectural headroom to handle DirectX 12 Ultimate features.

Memory Subsystem

The memory subsystem is the defining characteristic of this specific RTX 3060 variant, and it presents a notable trade-off. The card is equipped with 8 GB of GDDR6 memory, which is a step down from the 12 GB found on the original RTX 3060. This is paired with a 128-bit memory bus, and the combination yields a total memory bandwidth of 240.0 GB/s. The memory operates at an effective speed of 15 Gbps.

This configuration has direct implications for performance at higher resolutions. The 240.0 GB/s bandwidth is adequate for 1080p gaming, where the data demands are lower. However, for 1440p gaming, the combination of a narrower 128-bit bus and the lower capacity becomes a limiting factor. High-resolution textures and complex scenes require more data to be streamed to the GPU, and the available bandwidth may not be sufficient to maintain peak performance without stuttering or texture pop-in. The 8 GB capacity, while sufficient for many current titles at 1080p, is also becoming a concern for future-proofing, as some newer games with ultra-high detail settings can exceed this capacity, forcing the GPU to rely on slower system memory. In essence, the data shows a memory subsystem engineered for a specific performance target—1080p gaming—where it is well-matched, but it lacks the headroom for higher resolutions or a longer lifespan in terms of VRAM capacity. The 128-bit bus is the primary bottleneck in this design, capping the potential throughput even if the memory clocks were increased.

How It Compares

In the absence of direct rival scores, the comparison must be drawn from the card's internal specifications and its percentile placement. The data presents a clear profile of a 1080p-focused card that makes a deliberate compromise on memory bandwidth and capacity to achieve its performance point.

The primary comparison is against the standard RTX 3060 with 12 GB of memory. While the core GPU specifications are similar, the 8 GB GA104 variant has a significantly narrower memory bus and lower capacity. This results in a lower memory bandwidth figure, which directly impacts performance in memory-intensive scenarios. The data indicates that the 8 GB GA104 is not a direct replacement but a separate, more constrained product. It will likely perform similarly in lighter workloads but will fall behind the 12 GB model in games that are sensitive to bandwidth or require more than 8 GB of VRAM at higher settings. The choice is between a more balanced card and one that was clearly cost-optimized for a specific segment.

The card also sits within the broader GeForce 30-series stack. Compared to a card like the RTX 3060 Ti, which typically has more CUDA cores and a wider memory bus, the 8 GB GA104 is positioned firmly below in raw compute throughput. The 12.74 TFLOPS FP32 score is a definitive marker that places it in a lower performance tier. It is not designed to compete with higher-end Ampere cards, and its specs reflect that subordination. It is also a successor to the GeForce 20 series, and its performance represents a generational step forward in efficiency and features, but the memory configuration suggests it is not a universal upgrade across all titles.

Finally, its position as an end-of-life product with a successor in the GeForce 40 series means it represents the tail end of a generation. It is a product that embodies the architectural strengths of Ampere—including dedicated ray tracing and tensor cores—but is packaged with a memory subsystem that limits its long-term viability for high-fidelity gaming. The 50th percentile standing is the summary of all these factors, showing it as a median performer that is outclassed by newer and higher-tier parts but still capable of handling the majority of modern games at its target resolution.

Who Should Consider It

Based on the benchmark scores and memory configuration, this GPU is specifically tailored for gamers who prioritize 1080p resolution. The performance data, anchored by the 12.74 TFLOPS compute and 240.0 GB/s bandwidth, indicates that this card is well-suited for high refresh rate gaming in esports titles like competitive shooters and MOBAs, where the frame rate is more critical than absolute visual fidelity. For these games, the card will likely deliver high and consistent frame rates at 1080p with settings turned up.

For modern AAA titles, the recommendation is to use this card at 1080p with high, but not necessarily ultra, settings. The 8 GB VRAM capacity is sufficient for this resolution, but it may require adjusting texture quality in the most demanding games to avoid exceeding the memory limit. Users should consider this card if their primary monitor is 1080p and they are not planning to upgrade to a higher resolution display in the near future. Pushing this card to 1440p is possible, but the data suggests it will require significant compromises in settings to maintain playable frame rates, and the memory bandwidth may cause performance dips in visually intensive scenes. It is not a card for 4K gaming. The core specifications, including the 64 ROPs and the memory bus width, are simply not aligned with the demands of 4K rendering. This is a dedicated 1080p performer, and its architecture reflects that focus.

Ray Tracing and Feature Set

The card is built on the Ampere architecture and includes dedicated hardware for advanced rendering features. It is equipped with 28 RT cores and 112 tensor cores, which are the specialized processing units for ray tracing and AI-accelerated tasks, respectively. The presence of these cores enables support for DirectX 12 Ultimate, specifically the 12_2 feature level, which is the baseline for hardware-accelerated ray tracing and variable rate shading in modern games.

The 28 RT cores provide a baseline level of ray tracing performance. While not as powerful as the RT core configurations in higher-tier cards, they are sufficient to enable ray-traced effects in games, though users can expect a significant performance impact. The data suggests that enabling ray tracing at 1080p will be possible, but it may require using the DLSS (Deep Learning Super Sampling) feature, which leverages the 112 tensor cores, to maintain smooth frame rates. The tensor cores are capable of accelerating AI-based tasks, and the card's 12.74 TFLOPS FP16 performance (1:1) is a relevant metric for AI workloads, though the dedicated tensor cores are the primary accelerators for features like DLSS.

In terms of software support, the card is fully featured for its generation. It supports DirectX 12 Ultimate, OpenGL 4.6, and Vulkan 1.4. This ensures broad compatibility with all modern game engines and applications. Display output is handled via one HDMI 2.1 port and three DisplayPort 1.4a connections, allowing for multi-monitor setups and support for high refresh rate displays. The combination of RT and tensor cores, along with the modern API support, means the card is not just for pure rasterization. It is capable of delivering the full modern feature set, provided users are willing to manage settings to balance the performance cost of ray tracing. The 195 W TDP and dual-slot design indicate it is a power-efficient card that should be compatible with a wide range of systems, requiring a 450 W power supply.