AMD Ryzen 3 210 VS AMD Ryzen 7 Pro 250

Looking at the general specs for the AMD Ryzen 3 210 and the AMD Ryzen 7 Pro 250, the two processors share an identical foundation across every measured attribute in this group. Both are built on a 4 nm semiconductor process, carry a 28W TDP, top out at a 100 °C thermal ceiling, support PCIe 4.0, include integrated graphics, and are fully 64-bit compatible. Both are also rated for use in the same form factors — laptop and desktop — meaning neither has a platform flexibility advantage over the other.

The practical implication of this parity is significant: in terms of power envelope and thermal behavior, these two chips will behave identically under the same cooling conditions. A system designer or integrator would not need to adjust thermal solutions or power delivery when choosing one over the other based on this spec group alone. The shared 4 nm node also means both benefit from the same efficiency-per-watt generation, so neither has a manufacturing or leakage advantage.

Based strictly on the general info specs, these two processors are in a complete tie. There is no differentiator in this group — not in platform support, power design, process node, thermal limits, or I/O generation. The decision between them must therefore rest entirely on specs outside this group, such as core count, clock speeds, or cache.

The AMD Ryzen 3 210 and the AMD Ryzen 7 Pro 250 differ significantly in their core performance metrics. The Ryzen 3 210 operates with a base CPU speed of 3.6 GHz for one core and 2.8 GHz for the other three cores, with a turbo clock speed of up to 4.7 GHz. In contrast, the Ryzen 7 Pro 250 has a uniform base speed of 3.3 GHz across all eight of its cores, with a turbo boost reaching up to 5.1 GHz, offering a higher peak clock speed overall.

Regarding CPU threads, the Ryzen 3 210 supports 8 threads, whereas the Ryzen 7 Pro 250 supports 16 threads, providing more concurrent processing capability for demanding tasks. The Ryzen 3 210 utilizes big.LITTLE technology, which combines performance and efficiency cores, while the Ryzen 7 Pro 250 does not feature this technology.

In terms of cache memory, the Ryzen 3 210 has 4 MB of L2 cache and 8 MB of L3 cache, while the Ryzen 7 Pro 250 has 8 MB of L2 cache and 16 MB of L3 cache, giving the latter more cache memory for faster data retrieval. Both processors have a locked multiplier, meaning they do not allow for overclocking. Additionally, the Ryzen 3 210 uses a clock multiplier of 30, while the Ryzen 7 Pro 250 uses a slightly higher multiplier of 33.

In terms of benchmark performance, the AMD Ryzen 3 210 and the AMD Ryzen 7 Pro 250 show a notable difference. The Ryzen 3 210 has a PassMark result of 13,175, with a single-core score of 3,652. On the other hand, the Ryzen 7 Pro 250 achieves a higher PassMark result of 23,279, with a single-core score of 3,795.

While both processors have fairly close single-core scores, with the Ryzen 7 Pro 250 showing a slight edge, the overall multi-core performance of the Ryzen 7 Pro 250 is significantly higher, reflecting its greater number of cores and threads. The PassMark result for the Ryzen 7 Pro 250 is notably higher than that of the Ryzen 3 210, indicating stronger overall processing power.

Both processors have strong single-core performance, but the Ryzen 7 Pro 250's higher total PassMark result suggests it is better suited for tasks that rely on multi-threaded performance, making it more powerful overall compared to the Ryzen 3 210.

The integrated graphics of the AMD Ryzen 3 210 and AMD Ryzen 7 Pro 250 both feature the same base GPU clock speed of 800 MHz, but their other specifications differ. The Ryzen 3 210 is equipped with a Radeon 740M GPU, which can turbo boost up to 2,500 MHz. In contrast, the Ryzen 7 Pro 250 comes with a more powerful Radeon 780M GPU, which can turbo boost to 2,700 MHz.

Both processors support up to four displays and have identical support for DirectX 12, OpenGL 4.6, and OpenCL 2.1, ensuring compatibility with modern graphical standards. However, the two products differ in the number of texture mapping units (TMUs), render output units (ROPs), and shading units. The Ryzen 3 210 has 16 TMUs, 8 ROPs, and 256 shading units, while the Ryzen 7 Pro 250 offers more with 48 TMUs, 32 ROPs, and 768 shading units.

These differences in the number of TMUs, ROPs, and shading units suggest that the Ryzen 7 Pro 250 has significantly more processing power for graphics tasks compared to the Ryzen 3 210, which may lead to better overall performance in graphically demanding applications.

Both the AMD Ryzen 3 210 and the AMD Ryzen 7 Pro 250 share identical memory specifications. They both support a maximum RAM speed of 7500 MHz, DDR5 memory version, and have dual memory channels. Each processor is capable of handling up to 256GB of memory, providing a large amount of potential RAM for high-performance computing tasks.

Neither processor supports ECC memory, which means they do not offer error-correcting capabilities for memory, typically found in systems designed for high-reliability applications.

With all memory specifications being the same, both products offer a comparable memory configuration that should be suitable for a wide range of applications, including gaming, content creation, and multitasking.

Both the AMD Ryzen 3 210 and the AMD Ryzen 7 Pro 250 support identical instruction sets, including MMX, F16C, FMA3, AES, AVX, AVX2, SSE 4.1, and SSE 4.2. These instruction sets allow both processors to handle a wide range of modern applications efficiently, from multimedia processing to complex mathematical computations.

Both processors also support multithreading, enabling them to handle multiple tasks simultaneously, improving performance in multitasking and parallel processing scenarios. Additionally, both the Ryzen 3 210 and the Ryzen 7 Pro 250 feature the NX bit, a security feature that helps protect against certain types of malware attacks by marking memory areas as non-executable.

Since both processors share these key features, there is no difference in terms of their supported instruction sets, multithreading capabilities, or security features.