AMD Ryzen AI 7 H 350 VS AMD Ryzen AI 9 H 365

In terms of general characteristics, the AMD Ryzen AI 7 H 350 and the AMD Ryzen AI 9 H 365 are virtually identical across every measured spec in this group. Both processors are designed for Laptop and Desktop form factors, include integrated graphics, operate at a 28W TDP, are built on a 4 nm process node, share a maximum CPU temperature of 100 °C, support PCIe 4.0, and are fully 64-bit compatible.

The shared 4 nm manufacturing process is worth noting as it reflects a modern, efficient fabrication node that balances transistor density with power efficiency. The 28W TDP positions both chips in the mid-range efficiency bracket typical of performance-oriented laptop processors, and the identical thermal ceiling means neither chip has a built-in cooling advantage over the other at the platform level.

Based strictly on the specs in this group, these two processors are in a complete tie. There is no differentiator here that gives either product an edge. Users comparing the AI 7 H 350 and AI 9 H 365 should look to other spec groups — such as core counts, clock speeds, or AI engine performance — to find meaningful distinctions between the two.

The most telling difference in this group comes down to core and thread counts. The Ryzen AI 7 H 350 features an 8-core / 16-thread configuration, while the Ryzen AI 9 H 365 steps up to a 10-core / 20-thread layout. Both use big.LITTLE technology, meaning they blend performance and efficiency cores — but the AI 9 H 365 simply has more of both, giving it a structural advantage in workloads that can exploit parallelism, such as video encoding, 3D rendering, and heavy multitasking.

Cache is another area where the AI 9 H 365 pulls ahead: it carries 10 MB of L2 and 24 MB of L3 cache, versus 8 MB L2 and 16 MB L3 on the AI 7 H 350. Larger caches reduce how often the processor must reach out to slower system memory, which translates to lower latency and more consistent throughput in data-intensive tasks like compilation, simulation, and gaming at high frame rates.

Where the two chips converge is equally important to note: both top out at the same 5 GHz turbo clock speed and share an identical clock multiplier of 20, with neither offering an unlocked multiplier. This means in lightly-threaded, single-core scenarios — everyday productivity, web browsing, or gaming titles that favor clock speed — performance will be closely matched. The Ryzen AI 9 H 365 holds a clear overall edge in this group, but only users with genuinely multi-threaded workloads will feel the difference in practice.

The benchmark data reveals a genuinely interesting split between these two processors. In the multi-core PassMark test, the Ryzen AI 9 H 365 scores 29,245 against the Ryzen AI 7 H 350's 27,316 — a roughly 7% advantage that aligns predictably with its higher core and thread count established in the performance specs. For sustained parallel workloads, the AI 9 H 365 measurably pulls ahead.

The single-core results, however, tell the opposite story. The AI 7 H 350 posts a single-core PassMark of 3,970, while the AI 9 H 365 scores only 3,571 — a gap of nearly 11% in favor of the lower-tier chip. This is a meaningful finding: single-core performance governs responsiveness in everyday tasks like launching applications, browsing, and gaming, where most operations are still largely sequential. Despite sharing the same peak turbo clock, the AI 7 H 350 demonstrably sustains better per-core output in this test.

There is no single winner here — the result depends entirely on the use case. The Ryzen AI 9 H 365 has the edge for heavily threaded workloads, while the Ryzen AI 7 H 350 holds a clear advantage in single-threaded responsiveness. Users focused on content creation or parallel computing should lean toward the AI 9 H 365; those prioritizing snappy everyday performance may find the AI 7 H 350 the more practical choice.

Clock speeds alone can be misleading with integrated graphics, and this comparison is a textbook example. The Ryzen AI 7 H 350 carries the Radeon 860M, which runs at a higher base clock of 600 MHz and a turbo of 3000 MHz, while the Ryzen AI 9 H 365 houses the Radeon 880M at 400 MHz base and 2900 MHz turbo. On paper, the 860M appears faster — but clock speed is only one dimension of GPU throughput.

The far more decisive factor is raw compute capacity. The Radeon 880M in the AI 9 H 365 fields 768 shading units, 48 TMUs, and 16 ROPs, compared to just 512 shaders, 32 TMUs, and 8 ROPs in the 860M. That is a 50% increase across every rendering pipeline metric. More shading units mean greater parallelism for graphics tasks; more TMUs improve texture throughput in 3D scenes; and doubling the ROPs directly boosts pixel fill rate, which matters in high-resolution rendering and anti-aliasing. The slightly lower clock on the 880M is a minor trade-off against these substantially wider execution resources.

The Ryzen AI 9 H 365 holds a clear and convincing advantage in integrated graphics. Both chips share the same API support — DirectX 12, OpenGL 4.6, and OpenCL 2.1 — so the 880M can fully leverage its hardware lead across gaming, GPU-accelerated compute, and display workloads. For users relying on integrated graphics for light gaming or creative tasks without a discrete GPU, the AI 9 H 365 is the meaningfully stronger choice.

Memory capabilities are an exact match between these two processors. Both support DDR5 RAM at speeds up to 8000 MHz across dual channels, with a maximum addressable capacity of 256 GB. Neither supports ECC memory, which is consistent with their positioning as consumer and prosumer mobile chips rather than workstation-class silicon.

The shared DDR5 foundation is worth contextualizing: the standard brings substantially higher bandwidth and lower power consumption compared to DDR4, and the 8000 MHz ceiling is notably generous, leaving room for high-performance memory configurations that can meaningfully benefit the integrated GPU in particular — faster RAM directly translates to more memory bandwidth available for graphics rendering on both chips. Dual-channel support doubles the effective throughput versus single-channel setups, so platform configuration will matter as much as the chip itself.

This group is a complete tie. Every memory specification is identical across the Ryzen AI 7 H 350 and the Ryzen AI 9 H 365, meaning the memory subsystem will not be a differentiating factor in any real-world scenario. Users should treat RAM performance as a constant and look to other spec groups when deciding between these two processors.

Feature parity is total in this group. Both the Ryzen AI 7 H 350 and the Ryzen AI 9 H 365 support the same instruction set extensions — including AVX2, FMA3, AES, and F16C — and both implement multithreading and the NX bit security feature.

Among these, a few are worth highlighting for practical impact. AES hardware acceleration means encrypted storage and secure communications are handled efficiently at the silicon level, with negligible CPU overhead. AVX2 and FMA3 enable wide vectorized math operations critical for scientific computing, machine learning inference, and media processing pipelines. F16C adds half-precision floating-point conversion, relevant for AI and signal processing workloads. The NX bit, meanwhile, is a baseline hardware security feature that helps prevent execution of malicious code in data memory regions.

Since every capability listed here is shared identically, this group results in a complete tie. Neither the Ryzen AI 7 H 350 nor the Ryzen AI 9 H 365 gains any software compatibility or security advantage over the other — both will behave identically when applications attempt to leverage these instruction sets or platform security features.