Digging into the silicon details, the CPU architecture is a complete match between the two machines — identical cache sizes, instruction sets, socket, memory channels, and thermal limits. The interesting story here is entirely on the GPU side, where both laptops share the same Blackwell architecture, memory bus width, bandwidth, and memory speed, yet differ meaningfully in raw GPU scale. The Legion Pro 7i Gen 10 fields 10,496 shading units against the ROG Strix G16's 7,680 — a 37% larger shader array — accompanied by 328 TMUs versus 256 and 128 ROPs versus 96. These numbers directly translate to more parallel rendering work being processed per clock cycle, which is what drives the floating-point performance gap already seen in the Performance group.
The TDP figures add useful thermal context: the Legion's GPU operates at a 95W TDP compared to 80W on the Asus. This confirms that the Legion is running a larger, more power-hungry GPU — one that the chassis is designed to sustain under load. It is not a configuration anomaly; the higher TDP is the deliberate cost of delivering more GPU compute. For sustained gaming or rendering sessions, the Legion's cooling solution must work harder, which is consistent with its physically larger chassis noted in the Design group.
The Legion Pro 7i holds the clear advantage in this group. The GPU resource count — shaders, TMUs, and ROPs — is unambiguously higher across the board, and the TDP differential confirms this is a genuinely more capable GPU rather than a marginal variant. The ROG Strix G16's GPU is no slouch, but the architectural scale difference between the two Blackwell implementations is substantial and directly impacts rendering throughput in every workload.