AMD Instinct MI300A vs Intel Arc Pro A60M Comparison

AMD Instinct MI300A and Intel Arc Pro A60M occupy separate segments of the accelerator market. The database records no direct head-to-head benchmark results, no win counts, and no average benchmark scores for either part. Both rank at the 50th percentile among all GPUs, a neutral position that reflects the absence of measured performance data rather than equivalence. The analysis below draws exclusively on the recorded specifications, architecture details, and release dates.

FAQ

Q: What are the core architectural generations of these two parts?

A: The AMD Instinct MI300A uses CDNA 3.0, built on a 5 nm process at TSMC, with the chip named Aqua Vanjaram. The Intel Arc Pro A60M uses Xe-HPG, built on a 6 nm process at TSMC, with the chip named DG2-256.

Q: How do the memory subsystems compare?

A: The MI300A has 128 GB of HBM3 memory on a 8192-bit bus, delivering 5.32 TB/s of bandwidth. The Arc Pro A60M has 8 GB of GDDR6 memory on a 128-bit bus, delivering 256.0 GB/s. The MI300A memory clock is 1300 MHz with 5.2 Gbps effective data rate; the Intel part runs at 2000 MHz with 16 Gbps effective.

Q: What are the FP32 compute figures?

A: The MI300A provides 61.29 TFLOPS of FP32 throughput. The Arc Pro A60M provides 5.325 TFLOPS of FP32. The Intel part also records FP16 at 10.65 TFLOPS (2:1 ratio), while the MI300A has no listed FP16 value.

Q: What are the pixel and texture rates?

A: The MI300A lists 0 MPixel/s pixel rate and 1,915.2 GTexel/s texture rate. The Arc Pro A60M lists 83.20 GPixel/s pixel rate and 166.4 GTexel/s texture rate.

Q: What are the power and interface specifications?

A: The MI300A has a TDP of 750 W, uses an OAM Module slot width, has no power connectors listed, and a suggested PSU of 1150 W. The Arc Pro A60M has a TDP of 95 W, uses an IGP slot width, and lists no power connectors or suggested PSU. The MI300A uses PCIe 5.0 x16; the Arc Pro A60M uses PCIe 4.0 x16.

Q: Which API support is recorded for each?

A: The MI300A lists DirectX, OpenGL, and Vulkan as N/A. The Arc Pro A60M lists DirectX 12 Ultimate (12_2), OpenGL 4.6, and Vulkan 1.4.

The Verdict

The recorded data separates these two accelerators into distinct usage categories. The MI300A is a high-power, high-bandwidth compute module with no display outputs, no API support, and a massive memory footprint. The Arc Pro A60M is a mobile-class professional GPU with display output capability, full DirectX 12 Ultimate, OpenGL 4.6, and Vulkan 1.4 support, plus a 95 W TDP.

For compute workloads that require large memory capacity and raw FP32 throughput, the MI300A is the clear choice. Its 128 GB HBM3 pool and 5.32 TB/s bandwidth exceed the Arc Pro A60M’s 8 GB GDDR6 and 256.0 GB/s by orders of magnitude. The MI300A’s FP32 of 61.29 TFLOPS is more than eleven times the Arc Pro A60M’s 5.325 TFLOPS. The MI300A also offers 14,592 shading units and 912 TMUs, compared to 2,048 shading units and 128 TMUs on the Intel part. However, the MI300A has zero ROPs, zero pixel rate, and no display outputs, meaning it cannot drive a monitor or render to a screen. Its API support is entirely absent, so it is not suited for graphics applications.

For mobile workstations or embedded systems that need a GPU with display outputs, API compatibility, and moderate power draw, the Arc Pro A60M is the only viable option between the two. It has 64 ROPs, a 83.20 GPixel/s pixel rate, and support for DirectX 12 Ultimate, OpenGL 4.6, and Vulkan 1.4. It also includes 16 ray tracing cores, a feature the MI300A does not list. Its 95 W TDP fits in portable device power envelopes, whereas the MI300A requires 750 W and a 1150 W suggested PSU. The Arc Pro A60M’s production status is Active; the MI300A’s production status is not recorded.

The data does not support a universal recommendation. A system that needs compute density and memory bandwidth but never renders graphics should use the MI300A. A system that needs a professional GPU with graphics APIs and display outputs should use the Arc Pro A60M. Neither part can substitute for the other in their respective roles.

Head-to-Head Benchmarks

The database contains no head-to-head benchmark results for these two products. The winsA and winsB fields are both zero, and the headToHeadBenchmarks array is empty. Consequently, there are no measured performance deltas to report. The comparison must rely on the recorded specifications, which show massive differences in compute capacity, memory, and power.

In FP32 compute, the MI300A delivers 61.29 TFLOPS versus the Arc Pro A60M’s 5.325 TFLOPS. That is a ratio of approximately 11.5 to 1 in favor of the MI300A. Texture rate follows a similar pattern: 1,915.2 GTexel/s for the MI300A versus 166.4 GTexel/s for the Arc Pro A60M, a factor of 11.5. Shading units count 14,592 against 2,048, a 7.1 times difference. TMUs number 912 versus 128, a 7.1 times difference.

Memory bandwidth shows an even larger gap. The MI300A’s 5.32 TB/s is 20.8 times the Arc Pro A60M’s 256.0 GB/s. Memory capacity is 128 GB versus 8 GB, a 16 times difference. Bus width is 8192 bit versus 128 bit, a 64 times difference. The MI300A’s memory clock is 1300 MHz with 5.2 Gbps effective; the Arc Pro A60M runs at 2000 MHz with 16 Gbps effective. The higher per-pin data rate on the Intel part does not compensate for the much narrower bus.

The Arc Pro A60M has advantages in areas where the MI300A records zero or no data. Pixel rate is 83.20 GPixel/s for Intel, while AMD lists 0 MPixel/s. ROPs are 64 for Intel, while AMD lists 0. The Intel part has 16 ray tracing cores; the MI300A has no recorded ray tracing cores. The Intel part supports DirectX 12 Ultimate, OpenGL 4.6, and Vulkan 1.4; the MI300A lists N/A for all three APIs. The Intel part has display outputs categorized as Portable Device Dependent; the MI300A has no outputs.

Power consumption differs by a factor of 7.9: 750 W for the MI300A versus 95 W for the Arc Pro A60M. The suggested PSU for the MI300A is 1150 W; the Arc Pro A60M has no suggested PSU recorded. Slot width also differs: OAM Module for AMD, IGP for Intel.

Transistor counts and die sizes are recorded. The MI300A has 153,000 million transistors on a 1017 mm² die, yielding a density of 150.4M per mm². The Arc Pro A60M has 11,500 million transistors on a 269 mm² die, yielding 42.8M per mm². The MI300A’s transistor count is 13.3 times higher, and its die is 3.8 times larger. The MI300A’s density is 3.5 times higher.

Release dates differ by six months. The MI300A was released on 2023-12-05; the Arc Pro A60M on 2023-06-05. The MI300A’s predecessor is recorded as Radeon Instinct; the Arc Pro A60M has no predecessor listed. Neither has a successor recorded.

Specification Differences

The two parts differ across nearly every measurable specification. Process node: 5 nm for AMD, 6 nm for Intel. Foundry is TSMC for both. Transistor count: 153,000 million versus 11,500 million. Die size: 1017 mm² versus 269 mm². Transistor density: 150.4M per mm² versus 42.8M per mm².

Clock speeds: base 1000 MHz versus 900 MHz; boost 2100 MHz versus 1300 MHz. Memory clock: 1300 MHz (5.2 Gbps effective) versus 2000 MHz (16 Gbps effective). Memory size: 128 GB versus 8 GB. Memory type: HBM3 versus GDDR6. Bus width: 8192 bit versus 128 bit. Bandwidth: 5.32 TB/s versus 256.0 GB/s.

Shading units: 14,592 versus 2,048. TMUs: 912 versus 128. ROPs: 0 versus 64. Ray tracing cores: not recorded versus 16. Pixel rate: 0 MPixel/s versus 83.20 GPixel/s. Texture rate: 1,915.2 GTexel/s versus 166.4 GTexel/s. FP32: 61.29 TFLOPS versus 5.325 TFLOPS. FP16: not recorded versus 10.65 TFLOPS (2:1).

TDP: 750 W versus 95 W. Slot width: OAM Module versus IGP. Power connectors: None versus not recorded. Suggested PSU: 1150 W versus not recorded. Bus interface: PCIe 5.0 x16 versus PCIe 4.0 x16. Display outputs: No outputs versus Portable Device Dependent. APIs: DirectX N/A, OpenGL N/A, Vulkan N/A versus DirectX 12 Ultimate (12_2), OpenGL 4.6, Vulkan 1.4.

Dimensions are not recorded for either part. Production status: not recorded for AMD, Active for Intel. Release date: 2023-12-05 versus 2023-06-05. Predecessor: Radeon Instinct versus none. Launch MSRP is absent for both.

Architecture Differences

The MI300A is built on the CDNA 3.0 architecture, which is designed for compute acceleration. The chip is named Aqua Vanjaram. The architecture uses a 5 nm process and integrates 153,000 million transistors. The memory system is HBM3 with a 8192-bit bus, which allows the 5.32 TB/s bandwidth. The MI300A has no ROPs and no pixel rate, indicating it is not intended for rasterization. Its API support is listed as N/A, so it does not expose DirectX, OpenGL, or Vulkan interfaces. The absence of display outputs confirms a server or accelerator role. The power envelope of 750 W and the OAM Module slot width align with data center mounting.

The Arc Pro A60M uses the Xe-HPG architecture, specifically the Alchemist generation for Pro-Series Mobile. The chip is DG2-256. It uses a 6 nm process and integrates 11,500 million transistors. The memory system is GDDR6 on a 128-bit bus, providing 256.0 GB/s. The architecture includes 16 ray tracing cores, which the MI300A does not list. The Arc Pro A60M has 64 ROPs and a pixel rate of 83.20 GPixel/s, so it can perform traditional graphics rendering. It supports DirectX 12 Ultimate (12_2), OpenGL 4.6, and Vulkan 1.4, making it suitable for graphics workloads. Display outputs are present but depend on the portable device. The 95 W TDP and IGP slot width indicate integration into mobile systems.

The two architectures diverge in their fundamental purposes. CDNA 3.0 prioritizes compute throughput and memory bandwidth, with no graphics pipeline. Xe-HPG prioritizes a complete graphics feature set, including ray tracing and fixed-function rasterization hardware, while still providing FP32 and FP16 compute. The MI300A’s shading unit count of 14,592 and TMU count of 912 are far higher, but those units serve compute kernels rather than graphics rendering. The Arc Pro A60M’s 2,048 shading units and 128 TMUs are smaller but are accompanied by ROPs and ray tracing cores.

The process node difference is small: 5 nm versus 6 nm, both from TSMC. Transistor density is much higher on the MI300A, at 150.4M per mm² versus 42.8M per mm². That density reflects the MI300A’s larger die and more complex compute fabric. The MI300A’s memory interface is 64 times wider, which directly enables its bandwidth advantage. The Arc Pro A60M compensates with a higher effective memory data rate of 16 Gbps versus 5.2 Gbps, but the narrow bus limits total bandwidth.

The MI300A has no recorded FP16 value, while the Arc Pro A60M lists 10.65 TFLOPS FP16 (2:1). That means the Intel part can double its FP32 rate in FP16 workloads, a feature often used in AI inference. The MI300A’s FP32 is 61.29 TFLOPS, which is higher than the Arc Pro A60M’s FP16, so the AMD part still offers more raw throughput. However, the MI300A’s lack of API support means that throughput is not accessible from graphics or compute frameworks that rely on standard APIs.

The release dates place the Arc Pro A60M six months earlier. The MI300A’s predecessor is Radeon Instinct, while the Arc Pro A60M has no predecessor. The Arc Pro A60M’s production status is Active; the MI300A’s is not recorded. These differences in lifecycle and architecture confirm that the two products target different market segments, with no overlap in functionality.