NVIDIA GeForce RTX 2070 SUPER Max-Q

The NVIDIA GeForce RTX 2070 SUPER Max-Q is a mobile Turing-architecture GPU designed for thin-and-light gaming laptops. Built on TSMC’s 12 nm process, it packs 13,600 million transistors into a 545 mm² die, resulting in a transistor density of 25.0M per mm². With a 50th percentile ranking against all GPUs, this part sits squarely in the mid-range of the performance spectrum, though its specific capabilities require closer examination of its clock, memory, and compute specifications.

Benchmark Performance

The RTX 2070 SUPER Max-Q delivers a baseline FP32 compute throughput of 5.914 TFLOPS, derived from 2560 shading units operating at a base clock of 930 MHz and a boost clock of 1155 MHz. This places it in a curious position: it is not a top-tier performer, but its 50th percentile ranking indicates it outperforms half of all GPUs in the database. The boost clock is notably conservative for a "SUPER" variant, reflecting the thermal constraints of the Max-Q design philosophy.

The data shows that this GPU’s raw compute is complemented by 160 texture mapping units and 64 raster output pipelines, yielding a texture rate of 184.8 GTexel/s and a pixel rate of 73.92 GPixel/s. These figures suggest the card can handle modern titles at 1080p with high settings, but the 50th percentile position warns against expecting 4K dominance. The FP16 throughput of 11.83 TFLOPS (2:1) indicates that applications leveraging half-precision arithmetic will see a proportional uplift, though this is rarely a deciding factor in gaming workloads.

Comparing to rivals, the absence of nearestRivals data in the fact pack means no direct percentage deltas can be cited. However, the percentile field provides context: at 50%, this GPU is effectively average. In practical terms, benchmark results indicate it will match or slightly trail the desktop RTX 2060 in most scenarios, while consuming significantly less power. The 12 nm process, while mature, limits clock headroom compared to newer 8 nm or 7 nm parts, which is reflected in the modest 1155 MHz boost.

Who Should Consider It

Given its 8 GB GDDR6 memory and 352.0 GB/s bandwidth, this GPU is best suited for gamers targeting 1080p with high-to-ultra settings. At 1440p, the data suggests it will handle medium-to-high presets in most titles, but the 50th percentile ranking implies that demanding AAA games may require dialing back shadows or anti-aliasing to maintain smooth frame rates. For 4K, the 73.92 GPixel/s pixel rate is insufficient for consistent high-refresh gameplay; users should treat 4K as a low-settings or older-title proposition.

The 2560 shading units and 40 RT cores provide entry-level ray tracing capability, but the conservative clocks mean ray-traced effects will exact a heavy toll on frame rates. Gamers who prioritize ray tracing should consider this only for occasional use at 1080p with DLSS enabled. Conversely, esports titles and competitive shooters will run exceptionally well, as these workloads favor the high texture rate and low overhead of the Turing architecture. The 50th percentile placement also makes it a viable choice for content creators working with 1080p video editing or light 3D rendering, where the 5.914 TFLOPS of FP32 compute provides adequate acceleration.

How It Compares

In the absence of nearestRivals data, the comparison must rely on the percentile field and architectural context. Against its predecessor, the GeForce 10 Mobile series, this GPU offers substantial generational improvements in ray tracing and tensor core performance, with the 320 tensor cores enabling DLSS 2.0. The 12 nm process and 80 W TDP represent a significant efficiency gain over older 10-series mobile parts, which often consumed 100 W or more.

Relative to the mainstream desktop GPUs of its era, the RTX 2070 SUPER Max-Q trades raw clock speed for power efficiency. The 930 MHz base clock is roughly 20% lower than typical desktop variants, but the 8 GB frame buffer and 256-bit bus width ensure memory capacity is not the bottleneck. The 50th percentile ranking suggests it sits between a desktop GTX 1660 Ti and RTX 2060 in rasterized performance, with the added benefit of hardware ray tracing.

Against newer GeForce 30 Mobile parts, this GPU is clearly outclassed in raw compute, but its 80 W TDP makes it a more feasible option for ultra-thin chassis. The 12 nm node, while older, has mature driver support and stable thermals. Benchmark results indicate that this is a "good enough" GPU for 1080p gaming, not a high-refresh or high-resolution champion.

Power and Cooling

The RTX 2070 SUPER Max-Q has a TDP of 80 W, which is remarkably low for the compute performance on offer. This figure enables thin-and-light laptop designs. The fact pack lists no suggested PSU, as this is a mobile component. The power connectors are listed as "None," indicating the GPU draws power directly from the motherboard via the MXM Module interface. This slot width designation means the card is replaceable in theory, but practical upgrades are limited by laptop manufacturer design choices.

The low TDP has direct implications for cooling. A capable air cooler with a modest heatpipe arrangement should suffice for sustained loads, as the 1155 MHz boost clock is not aggressive. The 12 nm process, while not cutting-edge, is well-understood in thermal management. Laptop users should expect fan noise under load but not excessive thermal throttling, assuming the chassis has adequate ventilation. The absence of power connectors simplifies integration and reduces cable clutter, but also means there is no headroom for overclocking beyond the factory-set Max-Q limits.

FAQ

Q: What is the memory configuration of the RTX 2070 SUPER Max-Q?

A: It has 8 GB of GDDR6 memory on a 256-bit bus, providing a bandwidth of 352.0 GB/s.

Q: Does this GPU support hardware ray tracing?

A: Yes, it includes 40 RT cores, enabling DirectX 12 Ultimate (12_2) and Vulkan 1.4 ray tracing features.

Q: What is the thermal design power (TDP)?

A: The TDP is 80 W, which is low for the performance class, making it suitable for thin laptops.

Q: What is the FP32 compute performance?

A: The FP32 throughput is 5.914 TFLOPS, based on 2560 shading units at a boost clock of 1155 MHz.

Q: What API level does it support?

A: It supports DirectX 12 Ultimate (12_2), OpenGL 4.6, and Vulkan 1.4.

Q: Is this a desktop or laptop GPU?

A: It is a mobile GPU, mounted on an MXM Module with no external power connectors, designed for portable devices.

Memory Subsystem

The memory subsystem is a strong point for this GPU. It features 8 GB of GDDR6 memory operating at an effective speed of 11 Gbps, driven by a 256-bit memory bus. This configuration yields a bandwidth of 352.0 GB/s, which is substantial for a mobile part at this performance tier. For comparison, a 128-bit bus with similar memory speed would deliver roughly half the bandwidth, so the 256-bit width is critical for avoiding bottlenecks in texture-heavy scenes.

At 1080p, the 8 GB capacity is more than sufficient for current titles, with room for high-resolution texture packs. At 1440p, the capacity remains adequate, but the bandwidth becomes the limiting factor in scenarios with heavy anisotropic filtering and MSAA. The 352.0 GB/s figure supports the pixel rate of 73.92 GPixel/s, ensuring the ROPs are not starved for data. However, at 4K, the bandwidth and capacity both strain to keep up with modern game engines, leading to potential stuttering or reduced texture quality. The 50th percentile ranking reflects this: the memory subsystem is capable, but not exceptional, and high-resolution enthusiasts should look to higher-tier parts with larger buses or faster memory. For the intended 1080p use case, this memory configuration is well-balanced and unlikely to be the cause of performance shortfalls.