AMD Gorgon Halo APU benchmarks revealed

The next generation of AMD’s integrated graphics power is making waves in the tech world, with performance metrics for the Ryzen AI Max+ Pro 495 APU finally surfacing on public benchmarks.

The processor, known internally as the Gorgon Halo, recently appeared in the Geekbench 7 database. This testing provided a snapshot of the APU’s raw capability, revealing impressive scores that underscore its potential for high-performance computing.

In the single-core test, the Gorgon Halo achieved a score of 2593 points, while the multi-core test clocked in at an exceptional 26816 points. These results hint at a significant leap forward in processing efficiency for mobile workstations and demanding applications.

The monitoring data further confirmed the chip’s speed, logging a boost frequency of 5207MHz, which aligns perfectly with AMD’s official specifications listing a 5.2GHz boost clock.

Under the hood, the processor boasts a robust configuration of 16 cores and 32 threads, built around a 3.1GHz base clock—a layout mirroring the previous Max+ Pro 395 model. This architecture showcases AMD’s commitment to powerful, balanced core designs.

Integrated graphics duties are handled by the Radeon 8065S, leveraging the advanced RDNA3.5 architecture to deliver cutting-edge graphical performance alongside its processing power.

Beyond raw CPU metrics, the Gorgon Halo is particularly noteworthy for its integrated AI capabilities. Official AMD details confirm that the architecture features up to 16 cores and 32 threads, coupled with powerful specialized units: a 55TOPS performance derived from its XDNA2 NPU, and 40TOPS from the RDNA3.5 CUs.

This blend of CPU prowess and dedicated AI acceleration positions the APU as a formidable tool for handling complex machine learning tasks efficiently on the go.

Industry observers suggest that these benchmark results are closely aligned with expectations regarding the Ryzen AI Max 400 series, pointing toward a sophisticated clock-boosted refresh rather than an entirely new generational shift.