AMD Ryzen 5 240 VS AMD Ryzen 7 260

In terms of general characteristics, the AMD Ryzen 5 240 and AMD Ryzen 7 260 are virtually identical across every measured dimension in this group. Both processors are designed for Laptop and Desktop platforms, feature integrated graphics, share a 45W TDP, are built on a 4nm process node, top out at a 100°C junction temperature, support PCIe 4.0, and are fully 64-bit capable.

The shared 4nm fabrication node is significant: it reflects a modern, power-efficient manufacturing process that allows for higher transistor density and improved performance-per-watt compared to older nodes. The 45W TDP places both chips in the mid-range efficiency tier — versatile enough for thin-and-light laptops with adequate cooling, yet equally at home in compact desktops. PCIe 4.0 support ensures compatibility with fast NVMe storage and modern discrete GPUs without bandwidth bottlenecks.

Based strictly on the general info specs provided, these two processors are in a complete tie — there is no differentiating factor in this group whatsoever. Any meaningful distinction between the Ryzen 5 240 and Ryzen 7 260 will need to come from other specification groups, such as CPU performance cores, clock speeds, or cache configuration.

The core architectural trade-off here is classic: the Ryzen 5 240 runs fewer cores at a higher base frequency (6 cores at 4.3 GHz), while the Ryzen 7 260 opts for more cores at a lower clock (8 cores at 3.8 GHz). In practice, this means the Ryzen 5 240 will feel snappier in lightly-threaded tasks — everyday applications, single-instance workloads, and games that don't scale well across many cores — thanks to its higher per-core speed. The Ryzen 7 260, with its 16 threads versus the Ryzen 5 240's 12 threads, has a clear structural advantage in multi-threaded scenarios like video rendering, compilation, and content creation workloads.

At boost speeds, the gap nearly vanishes: 5.1 GHz for the Ryzen 7 260 versus 5.0 GHz for the Ryzen 5 240 — a difference too slim to matter in real-world use. Cache tells a more nuanced story: the Ryzen 7 260 carries more total L1 (512 KB) and L2 (8 MB) cache, which makes sense given its higher core count. However, on a per-core basis the Ryzen 5 240 actually holds more L3 cache per core (2.67 MB/core vs 2 MB/core), which can benefit latency-sensitive workloads where individual cores need fast data access. Total L3 is identical at 16 MB for both.

Overall, the Ryzen 7 260 holds the performance edge for users whose workloads scale with core and thread count. The Ryzen 5 240 remains competitive — and arguably preferable — for use cases dominated by single-threaded performance and lower-latency per-core execution. Neither chip has an unlocked multiplier, so overclocking is off the table for both.

Benchmark scores put concrete numbers behind the architectural differences observed in the performance group. In the multi-threaded PassMark test, the Ryzen 7 260 scores 29,915 against the Ryzen 5 240's 22,576 — a gap of roughly 32%. That is a substantial margin, directly reflecting the Ryzen 7 260's additional cores and threads doing real, measurable work under parallel load.

The single-threaded result is where things get closer, but the Ryzen 7 260 still leads: 3,826 versus 3,533, an advantage of about 8%. This is a meaningful finding — it means the Ryzen 7 260 is not simply winning on the back of raw core count alone; it also edges ahead in the kind of per-core execution speed that governs everyday responsiveness, gaming frame rates, and latency-sensitive tasks. For users who expected the Ryzen 5 240's higher base clock to compensate in single-threaded scenarios, the benchmark data suggests it does not fully close the gap.

Across both dimensions, the Ryzen 7 260 is the clear winner in this group. It outperforms the Ryzen 5 240 in multi-threaded workloads by a wide margin and maintains a modest but real lead in single-threaded performance as well, making it the stronger chip regardless of whether the workload is parallelizable or not.

The integrated GPU story follows the same pattern established in the CPU benchmarks: the Ryzen 7 260 carries a meaningfully more capable unit. Its Radeon 780M packs 768 shading units, 48 TMUs, and 32 ROPs — exactly 50% more of each compared to the Radeon 760M in the Ryzen 5 240, which ships with 512 shading units, 32 TMUs, and 16 ROPs. In practical terms, shading units drive raw compute throughput, TMUs handle texture processing speed, and ROPs govern how quickly the GPU can write pixels to the framebuffer. More of all three translates directly into higher frame rates and smoother rendering in graphically demanding scenarios.

Clock speeds are nearly identical at the base — both run at 800 MHz — but the Radeon 780M edges ahead at boost with 2,700 MHz versus 2,600 MHz for the 760M. That 100 MHz boost difference is modest on its own, but combined with the 50% larger shader array, the Ryzen 7 260's GPU can push substantially more work per clock cycle. API support is uniform across both: DirectX 12, OpenGL 4.6, and OpenCL 2.1 ensure identical software compatibility, and both support up to 4 simultaneous displays.

For anyone relying on integrated graphics — whether for light gaming, media work, or multi-monitor productivity without a discrete GPU — the Ryzen 7 260 holds a clear and significant advantage. The Radeon 780M's larger execution engine is not a marginal gain; a 50% increase in shader resources is a structural difference that will show up in any GPU-bound workload.

Memory support is identical between the two chips in every measurable way. Both the Ryzen 5 240 and Ryzen 7 260 use DDR5 with a maximum rated speed of 7,500 MHz, operate on a dual-channel configuration, and top out at 256GB of maximum addressable RAM. Neither supports ECC memory, which is expected for consumer-grade processors and only relevant to those building workstation or server systems requiring error-correcting RAM.

The DDR5 platform with 7,500 MHz support is noteworthy context: high-frequency DDR5 meaningfully benefits integrated graphics in particular, since the iGPU draws directly from system memory rather than dedicated VRAM. Given that the Ryzen 7 260's Radeon 780M has a larger shader array to feed, fast memory is especially important to realize its full potential — though both chips are equally equipped to take advantage of it. The 256GB ceiling is generous enough to be a non-issue for virtually any consumer or prosumer workload.

This group is a complete tie. There is no memory-related differentiator between the Ryzen 5 240 and Ryzen 7 260 — both offer the same speed ceiling, channel count, capacity limit, and feature set. Users should weigh other specification groups when making their decision.

From a feature and instruction set standpoint, the Ryzen 5 240 and Ryzen 7 260 share an identical foundation. Both support the same extension set — including AVX2, AES, FMA3, and SSE 4.2 — which covers the full range of modern workload acceleration needs. AVX2 enables wide vectorized math operations critical for scientific computing, video encoding, and machine learning inference; AES hardware acceleration underpins fast encrypted storage and secure communications; and FMA3 boosts floating-point throughput in signal processing and graphics pipelines.

Both processors also support multithreading and carry the NX bit, the latter being a baseline security feature that prevents execution of code in memory regions designated as data — relevant for OS-level exploit protection. These are table-stakes capabilities for any modern processor, and their presence here confirms both chips are fully equipped for contemporary software environments.

With no differences whatsoever across instruction sets, multithreading support, or security features, this group is an unambiguous tie. Software compatibility and low-level feature access will be identical on both chips, meaning this dimension offers no basis for choosing one over the other.