AMD Radeon 8060S vs AMD Radeon Pro W6600M Comparison

AMD Radeon Pro W6600M vs. AMD Radeon 8060S is a generational clash between a dedicated mobile workstation GPU built on RDNA 2.0 and a modern integrated graphics solution based on RDNA 3.5. The data shows a decisive performance swing toward the newer AMD Radeon 8060S, but the older Pro W6600M still holds specific advantages in its design philosophy. Benchmark results indicate that the 8060S is the clear compute winner, yet the W6600M’s profile as a discrete part with dedicated memory offers a different set of trade-offs for mobile workstations.

Head-to-Head Benchmarks

The benchmark data presents a straightforward narrative: the AMD Radeon 8060S dominates in every recorded test. In the Geekbench OpenCL compute test, the 8060S scores 84,626, while the Radeon Pro W6600M manages 56,140. This represents a massive 33.7% lead for the 8060S, a gap that speaks to the architectural leap between the two generations. The 8060S’s raw FP32 throughput of 14.85 TFLOPS, combined with its 2,560 shading units, easily outpaces the W6600M’s 7.290 TFLOPS and 1,792 shading units in raw compute workloads. This is not a marginal difference; it is a generational chasm in processing power.

The Vulkan results tell a similar, though slightly less extreme, story. The 8060S scores 80,483, compared to the W6600M’s 67,652, yielding a 15.9% advantage for the newer part. While this is a smaller margin than the OpenCL gap, it still indicates a clear victory for the Radeon 8060S. The 8060S also benefits from a much higher boost clock of 2900 MHz versus 2034 MHz on the W6600M, which helps close the gap in graphics-centric tasks even when memory bandwidth is a limiting factor. For the W6600M, the Vulkan result is its best showing, but it still falls short. The 8060S’s superior texture rate of 464.0 GTexel/s versus 227.8 GTexel/s on the W6600M further underscores its dominance in fill-rate-limited scenarios.

Looking at the broader performance context, the average benchmark scores provide a more nuanced picture. The W6600M has an average score of 61,896, which places it in the 89th percentile of all GPUs. Its nearest rivals include the AMD Radeon 8050S with an average score of 62,108 (a 0.3% delta), and the NVIDIA GeForce RTX 4090 with 60,347 (a 2.6% delta in favor of the W6600M). This indicates that despite its age, the W6600M is still a highly capable part that outperforms even the flagship consumer RTX 4090 in this specific benchmark aggregation. In contrast, the 8060S has an average score of 55,757, placing it in the 87th percentile. Its nearest rival is the AMD Radeon RX 6750 GRE 12 GB with an average score of 55,698 (a 0.1% delta), and it sits just behind the NVIDIA GeForce RTX 5080, which scores 56,083 (a 0.6% delta). This is a critical distinction: while the 8060S wins the head-to-head tests decisively, its average score is lower than the W6600M’s. This suggests that in a broader suite of benchmarks, the W6600M’s dedicated memory and consistent performance profile might yield more stable results, whereas the 8060S’s reliance on system memory can cause significant variance depending on the host system’s configuration.

The data highlights a key divergence: the 8060S is a sprinter with explosive peak performance in specific tests, while the W6600M is a reliable marathon runner with a higher overall average across a diverse set of workloads. The 8060S wins both head-to-head matchups, but the W6600M holds a 10.1% higher average benchmark score. This paradox is explained by the fact that the 8060S’s performance is heavily dependent on system memory bandwidth, which is listed as "System Dependent," whereas the W6600M has its own dedicated 224.0 GB/s of bandwidth. In a constrained environment, the 8060S may not reach its full potential, while the W6600M remains consistent.

FAQ

Q: Which GPU is faster in raw compute performance?

A: The AMD Radeon 8060S is significantly faster. It scores 84,626 in Geekbench OpenCL, which is 33.7% higher than the Radeon Pro W6600M’s score of 56,140. Its FP32 compute is listed at 14.85 TFLOPS, nearly double the W6600M’s 7.290 TFLOPS.

Q: Does the older Radeon Pro W6600M outperform the newer 8060S in any way?

A: Yes, in its average benchmark score. The W6600M has an average score of 61,896, which is higher than the 8060S’s average of 55,757. This suggests the W6600M provides more consistent performance across a wider range of tests, likely due to its dedicated 8 GB of GDDR6 memory with 224.0 GB/s bandwidth.

Q: How do these GPUs compare to their nearest rivals?

A: The W6600M sits just 0.3% below the AMD Radeon 8050S in average score, and it is 2.6% ahead of the NVIDIA GeForce RTX 4090. The 8060S is 0.1% ahead of the AMD Radeon RX 6750 GRE 12 GB and trails the NVIDIA GeForce RTX 5080 by 0.6%.

Q: What are the key architectural differences that explain the performance gap?

A: The 8060S uses a newer RDNA 3.5 architecture on a 4 nm process, while the W6600M uses RDNA 2.0 on a 7 nm process. The 8060S also has a higher boost clock (2900 MHz vs 2034 MHz) and more shading units (2560 vs 1792).

Q: Which GPU has a better memory subsystem?

A: The Radeon Pro W6600M has a dedicated memory subsystem with 8 GB of GDDR6 on a 128-bit bus, providing 224.0 GB/s of bandwidth. The Radeon 8060S uses System Shared memory, where the bus width and bandwidth are "System Dependent."

Q: What is the power consumption difference?

A: The Radeon 8060S has a lower TDP of 55 W, while the Radeon Pro W6600M has a TDP of 90 W. This makes the newer 8060S more power-efficient, delivering higher performance at a lower power draw.

The Verdict

The data points to a clear choice for users prioritizing raw compute power: the AMD Radeon 8060S. It wins both head-to-head benchmark tests by substantial margins, offers nearly double the FP32 throughput, and does so at a lower TDP of 55 W versus 90 W. For workloads that are purely compute-bound and can leverage the high boost clock of 2900 MHz, the 8060S is the superior part. Its architecture is newer, its feature set is more modern, and its raw numbers are simply better. The 8060S is the pick for users who need maximum performance in specific, high-intensity tasks like rendering or compute acceleration, provided the host system has sufficient memory bandwidth.

The Radeon Pro W6600M, however, is not without merit. Its higher average benchmark score (61,896 vs 55,757) and its higher percentile ranking (89th vs 87th) indicate that it is a more well-rounded performer across a broad spectrum of applications. The dedicated 8 GB of GDDR6 memory with fixed 224.0 GB/s bandwidth ensures that its performance is not contingent on the system’s shared memory configuration. This makes the W6600M a more predictable and reliable choice for professional environments where consistent performance across various software packages is critical. Its end-of-life status and older architecture are drawbacks, but its stability and dedicated memory make it a viable option for legacy workflows or systems where system memory is limited.

The choice hinges on the nature of the workload. If the application is known to benefit from the 8060S’s specific strengths—like Vulkan-based games or OpenCL compute—then the 8060S is the obvious winner. However, if the user requires a dependable, consistent performer that is less sensitive to system configuration, the W6600M’s dedicated memory and higher average score make it a compelling alternative. The 8060S is the future, but the W6600M is a proven, stable quantity that still holds its own in a wide range of tasks.

Specification Differences

The two GPUs differ in nearly every fundamental specification. The Radeon Pro W6600M is built on a 7 nm process with a die size of 237 mm², while the Radeon 8060S uses a more advanced 4 nm process and has a larger die size of 308 mm². The W6600M has 11,060 million transistors, a figure that is listed as "unknown" for the 8060S. Clock speeds differ significantly: the W6600M has a base clock of 1224 MHz and a boost clock of 2034 MHz, while the 8060S has a base clock of 1295 MHz and a much higher boost clock of 2900 MHz. The memory configuration is starkly different: the W6600M features 8 GB of GDDR6 on a 128-bit bus with 224.0 GB/s bandwidth, whereas the 8060S relies on System Shared memory with bandwidth that is "System Dependent." The shading units and TMUs also differ, with the 8060S offering 2,560 shading units and 160 TMUs versus the W6600M’s 1,792 shading units and 112 TMUs. Both have 64 ROPs, but the 8060S has 40 ray tracing cores compared to 28 on the W6600M. The 8060S has a lower TDP of 55 W compared to 90 W. The bus interface also differs: the W6600M uses PCIe 4.0 x16, while the 8060S uses PCIe 5.0 x16. Finally, their production statuses differ, with the W6600M marked as End-of-life and the 8060S marked as Active.

Architecture Differences

The architectural differences are profound and explain the performance gulf. The Radeon Pro W6600M is based on the Navi 23 chip using the RDNA 2.0 architecture, a design that was introduced in 2021. In contrast, the Radeon 8060S is built on the Strix Halo chip using the newer RDNA 3.5 architecture, released in 2025. This generational leap is reflected in the process node, moving from 7 nm to 4 nm, which allows for higher clock speeds and better power efficiency. The RDNA 3.5 architecture in the 8060S supports a 1:1 FP16 to FP32 ratio, delivering 14.85 TFLOPS in both, whereas the W6600M’s RDNA 2.0 architecture uses a 2:1 ratio, offering 14.58 TFLOPS in FP16 but only 7.290 TFLOPS in FP32. The newer architecture also provides a higher pixel rate (185.6 GPixel/s vs 130.2 GPixel/s) and texture rate (464.0 GTexel/s vs 227.8 GTexel/s). The 8060S also has more ray tracing cores (40 vs 28), enhancing its ray tracing capabilities. Perhaps the most significant architectural difference is the memory model: the W6600M is a discrete GPU with its own dedicated VRAM, while the 8060S is an integrated GPU that shares system memory. This fundamental design choice impacts bandwidth and latency, and it explains why the 8060S’s performance can be "System Dependent." Both support DirectX 12 Ultimate (12_2), OpenGL 4.6, and Vulkan 1.4, but the underlying hardware implementations are vastly different.