AMD Ryzen 5 Pro 215 VS AMD Ryzen AI 5 Pro 340

In terms of general characteristics, the AMD Ryzen 5 Pro 215 and the AMD Ryzen AI 5 Pro 340 are remarkably identical across every provided spec in this group. Both are designed for Laptop and Desktop platforms, feature integrated graphics, operate within a 28W TDP envelope, 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 28W TDP is worth noting: this is a relatively moderate power envelope that balances performance with thermal efficiency, making both chips well-suited for thin-and-light laptops as well as compact desktops without demanding elaborate cooling solutions. The 4 nm fabrication process similarly signals that both processors benefit from the same generation of manufacturing efficiency, implying comparable transistor density and power-per-performance characteristics at the silicon level.

Based strictly on the general info specs provided, these two processors are in a complete tie — there is no differentiating factor in this category. Users looking to choose between them will need to look beyond general specs, such as core counts, clock speeds, or AI-specific capabilities, to find meaningful distinctions.

The most striking difference in this group comes down to raw clock speed. The Ryzen 5 Pro 215 runs all its cores at 3.2 GHz, while the Ryzen AI 5 Pro 340 operates at just 2 GHz across its core configuration. That is a substantial 60% clock speed advantage for the Pro 215, which translates directly into faster single-threaded responsiveness — the kind of performance that matters most for everyday tasks like web browsing, office applications, and any workload that cannot be easily parallelized.

Both chips share the same thread count of 12 threads, identical cache hierarchy (6 MB L2 and 16 MB L3), and both employ big.LITTLE asymmetric core architecture, meaning neither has a structural advantage in how work is distributed across cores. The locked multiplier on both also means there is no overclocking headroom to compensate for the clock speed gap on the Pro 340's side.

On performance specs alone, the Ryzen 5 Pro 215 holds a clear edge. Its significantly higher operating frequency gives it a tangible advantage in latency-sensitive and single-core-bound scenarios, and with no cache or thread count disadvantage to offset this, the Pro 340 cannot close the gap within the bounds of these specs. Users prioritizing outright CPU throughput should favor the Pro 215.

Benchmark results for this pair tell a notably different story than the raw clock speed specs might suggest. The Ryzen AI 5 Pro 340 scores 19,500 in PassMark's multi-threaded test versus 17,894 for the Ryzen 5 Pro 215 — a lead of roughly 9% in overall throughput. This indicates that the Pro 340 is able to deliver more aggregate compute work per unit of time, despite its lower listed clock frequencies, likely due to architectural efficiencies or IPC improvements not captured by frequency numbers alone.

The single-core result reinforces this pattern: the Pro 340 scores 3,830 against the Pro 215's 3,645, a margin of about 5%. Single-core performance is the most direct indicator of everyday snappiness — how fast a system feels when launching apps, rendering a single browser tab, or executing any task that runs on one core at a time. A higher single-core score here means the Pro 340 should feel marginally more responsive in typical daily use.

These benchmark results give the Ryzen AI 5 Pro 340 a clear and consistent advantage across both tested dimensions. The gap is moderate rather than dramatic, but it is unambiguous — the Pro 340 leads in both multi-threaded workloads and single-core responsiveness, making it the stronger performer by the evidence in this group.

Both processors carry AMD Radeon integrated graphics, but they are not on equal footing. The Ryzen AI 5 Pro 340 pairs with the Radeon 840M, a newer GPU than the Radeon 740M found in the Ryzen 5 Pro 215. More concretely, the 840M reaches a turbo clock of 2,900 MHz versus 2,700 MHz for the 740M — a roughly 7% higher peak GPU frequency. In graphics workloads, higher turbo clocks generally translate to faster frame rendering, smoother performance in light gaming, and quicker completion of GPU-accelerated tasks like video decoding or image processing.

Where these two chips are fully identical is in their API support: both offer DirectX 12, OpenGL 4.6, and OpenCL 2.1, and both can drive up to 4 simultaneous displays. This means neither holds an advantage for multi-monitor productivity setups, and software compatibility across graphics APIs is a non-issue for either chip.

For integrated graphics, the Ryzen AI 5 Pro 340 has the edge. The newer Radeon 840M with its higher turbo frequency gives it a measurable, if modest, lead in GPU performance — meaningful for users who rely on integrated graphics for casual gaming or GPU-accelerated creative tasks, and consistent with the broader performance advantage the Pro 340 demonstrated in benchmarks.

Memory support between these two chips is nearly identical, with one exception: maximum RAM speed. The Ryzen AI 5 Pro 340 supports memory up to 8,000 MHz, while the Ryzen 5 Pro 215 tops out at 7,500 MHz. That 500 MHz difference — about a 7% bandwidth advantage — matters most in memory-intensive workloads and for the integrated GPU, which draws directly from system RAM. Faster memory translates to higher available bandwidth for graphics rendering, large dataset processing, and any application that frequently moves data between CPU and RAM.

Everything else in this category is a dead heat. Both processors use DDR5, operate in dual-channel mode, cap out at 256 GB of maximum RAM, and support ECC memory — the latter being a notable pro-tier feature that enables error-correcting memory for workloads where data integrity is critical, such as financial computing or server-adjacent tasks.

The Ryzen AI 5 Pro 340 holds a narrow but real advantage here thanks to its higher supported memory frequency. While the practical difference may be subtle in everyday use, it compounds with the Pro 340's leads in benchmarks and integrated GPU performance to paint a consistent picture of a chip with a slight but tangible edge across memory-sensitive scenarios.

Feature parity is absolute in this category. The Ryzen 5 Pro 215 and the Ryzen AI 5 Pro 340 share an identical instruction set portfolio — including AVX2, AES, and FMA3 — which collectively cover the most practically important extensions for modern software. AVX2 accelerates data-parallel workloads like scientific computing and media encoding; AES enables hardware-level encryption and decryption at near-zero performance cost; and FMA3 boosts floating-point throughput in machine learning inference and signal processing pipelines.

Both chips also support multithreading and carry the NX bit for hardware-enforced memory protection — a baseline security feature that prevents certain classes of code-injection attacks. Neither of these specs introduces a meaningful differentiator, but their presence confirms that both processors meet the minimum expectations for modern, secure, and capable computing environments.

This group is a complete tie. Every feature listed is shared identically, meaning software compatibility, instruction-level acceleration, and security capabilities are indistinguishable between the two chips. Buyers cannot use this category as a deciding factor — the choice will need to rest on the performance, benchmark, and memory differences identified in other groups.