AMD PRO A10-9700

The AMD PRO A10-9700 is a 4-core, 4-thread desktop processor built on the Excavator architecture (Bristol Ridge) for the AMD Socket AM4 platform. It operates with a base clock of 3.50 GHz and a boost clock of 3.80 GHz, and it includes integrated Radeon R7 graphics. The data positions this part at the 28th percentile of all CPUs, with an average benchmark score of 1045, placing it in direct competition with several lower-end Intel parts from different eras.

Single-Thread vs Multi-Thread Behavior

The benchmark results reveal a processor that is heavily skewed toward multi-threaded workloads, though its absolute scores in both areas are modest. In Cinebench R23, the single-core score is 428, while the multi-core score reaches 3037. The ratio between these two figures indicates that the four physical cores scale reasonably well when all are utilized, but the per-core performance is the limiting factor. The single-thread score of 428 is low in absolute terms, suggesting that the Excavator architecture's older design does not translate into strong per-clock efficiency compared to more modern rivals.

For real-world workloads, this split means the PRO A10-9700 will handle tasks that can use all four cores simultaneously—such as video encoding, rendering, or batch file processing—better than it handles lightly-threaded applications. A single-threaded workload like web browsing, office document editing, or older games will not see the benefit of the multi-core scaling, and the processor will feel sluggish in those scenarios. The Cinebench R20 scores reinforce this pattern: a multi-core score of 1275 versus a single-core score of 179. The multi-core figure is roughly seven times the single-core figure, which is close to the theoretical maximum for a 4-core part, indicating that thread scheduling and core communication are not bottlenecks. However, the absolute values are what matter for real performance, and both are on the low end of the spectrum.

Power and Thermals

The PRO A10-9700 carries a 65W TDP, which classifies it as a mainstream power envelope part. This figure is notable because it is the same TDP class as many modern six-core and eight-core processors, yet this chip delivers far less performance. The implication for cooling is straightforward: a capable air cooler, such as a stock AMD cooler or a basic tower cooler, will be sufficient to manage the thermals. The 28 nm process node, manufactured by GlobalFoundries, is an older and less efficient node compared to modern 7 nm or 5 nm processes, which means the 65W budget is consumed by a relatively small die size of 250 mm² containing 3,100 million transistors.

The practical consequence is that the processor will run warmer than a modern part at the same TDP, but it will not require exotic cooling solutions. Users should ensure adequate case airflow, but there is no need for liquid cooling or high-end air towers. The lack of an unlocked multiplier means overclocking is not an option to extract additional performance, so the thermal solution only needs to handle stock operation. For a system builder, this simplifies the cooling decision: any standard 92mm or 120mm tower cooler will keep the chip within safe operating temperatures under sustained multi-threaded loads.

How It Compares

Against the Intel Pentium Gold G5620, the PRO A10-9700 is a statistical dead heat. Both processors post an average benchmark score of 1045, resulting in a deltaPct of 0. This means that in aggregate across multiple benchmarks, the two chips deliver equivalent performance. However, the Pentium Gold is a dual-core part with hyper-threading, while the AMD chip has four physical cores. The similar average scores suggest that the Pentium's higher per-core performance compensates for its fewer threads.

The comparison to the Intel Core i7-4558U is equally close, with both processors scoring 1045 on average. The i7-4558U is a mobile part from a previous generation, and its 28W TDP class makes it a power-efficient option, yet the PRO A10-9700 matches its performance. This indicates that the AMD chip's desktop power budget does not translate into a meaningful performance advantage over a well-implemented mobile processor from the same era.

Versus the Intel Core i5-6350HQ, the PRO A10-9700 trails by a single point in average score: 1045 versus 1046, a deltaPct of 0. This is within the margin of error for benchmark variance. The i5-6350HQ is a quad-core mobile part, so the comparison is apples-to-apples in terms of core count, and the near-identical scores suggest that architecture differences balance out.

The closest competitor is the Intel Core i3-4160T, which scores 1044 on average, with the PRO A10-9700 ahead by 0.1 percent. This is a negligible difference, but it does place the AMD chip at the top of this small cluster of rivals. The i3-4160T is a dual-core part with hyper-threading, and the fact that a 4-core AMD chip only edges it out by a tenth of a percent highlights the per-core deficit of the Excavator architecture.

Who Should Consider It

The benchmark data paints a clear picture of the PRO A10-9700's suitability for different workloads. For gaming, this processor is a poor choice. The single-core score of 428 in Cinebench R23 is far below what modern games require, and the 28th percentile ranking against all CPUs means that most gaming titles will be bottlenecked by the CPU. The integrated Radeon R7 graphics can handle basic 2D and light 3D workloads, but it is not a gaming solution.

For content creation, the multi-core scores offer some utility. The Cinebench R23 multi-core score of 3037 and the R20 score of 1275 indicate that the chip can complete rendering tasks, but slowly. A user doing occasional video transcoding or photo batch processing will get the job done, but the time required will be significantly longer than with a modern mid-range processor. The 4-core/4-thread configuration is the minimum for modern creation software, and the low single-thread performance will hurt in applications that are not perfectly parallelized.

For office and productivity work, this processor is adequate but unremarkable. Spreadsheets, word processing, and web browsing will run, but the low single-core performance means that complex spreadsheets or heavy multi-tab browsing will feel sluggish. The dual-channel DDR4 memory support with 38.4 GB/s of bandwidth is a positive, as it provides sufficient memory throughput for these tasks. The PRO A10-9700 is best suited for a basic office PC where the integrated graphics eliminate the need for a discrete GPU, and where the user does not demand fast response times.

Benchmark Performance

The Cinebench R15 multi-core score of 306 is the oldest benchmark in the set, and it shows the processor's relative standing against its rivals. In Cinebench R20, the multi-core score of 1275 and single-core score of 179 provide a more modern reference point. The R23 results show a multi-core score of 3037 and a single-core score of 428, which are the most relevant for current software.

The deltaPct values against the nearest rivals are all effectively zero, meaning there is no meaningful performance separation between the PRO A10-9700 and its closest competitors. The Intel Pentium Gold G5620 matches the AMD chip exactly at 1045 average score. The Intel Core i7-4558U also matches at 1045. The Intel Core i5-6350HQ edges ahead by one point at 1046, a 0 percent delta. The Intel Core i3-4160T trails at 1044, giving the AMD chip a 0.1 percent advantage.

This cluster of four rivals, all within two points of each other, indicates that the PRO A10-9700 is in a highly competitive segment where no single product has a clear edge. The architecture differences between AMD and Intel are effectively neutralized at this performance tier. The 28th percentile ranking confirms that the PRO A10-9700 sits in the lower quarter of all CPUs ever benchmarked, which is a critical context for any buyer: this is not a mid-range part, but rather an entry-level processor that happens to have four cores.

Platform and Compatibility

The PRO A10-9700 uses the AMD Socket AM4 platform, which is significant because it provides a clear upgrade path. The AM4 socket supports multiple generations of AMD processors, from Bristol Ridge through Zen, Zen+, and Zen 2 architectures. This means a user who builds a system around this chip today can later upgrade to a significantly faster processor without changing the motherboard. The socket supports DDR4 memory in a dual-channel configuration, with a memory bandwidth of 38.4 GB/s, and the memory controller does not support ECC memory.

PCIe connectivity is provided via Gen 3 with 8 lanes from the CPU. This is a limitation compared to modern processors that offer 16 or 20 lanes, and it means that a discrete graphics card will run at reduced bandwidth compared to a full x16 slot. However, for the integrated Radeon R7 graphics, this is a non-issue, and the 8 lanes are sufficient for a mid-range GPU. The production status is listed as active, indicating that the processor is still available for purchase, though its 2017 release date means it is an older design.

The lack of an unlocked multiplier prevents overclocking, so the 3.50 GHz base and 3.80 GHz boost clocks are fixed. The 28 nm process node and 250 mm² die size are characteristics of the Excavator architecture, which is a mature design by modern standards. For a system builder, the AM4 socket is the key consideration: it offers flexibility for future upgrades, but the 8 PCIe lanes and lack of ECC support are constraints that should be weighed against the low performance ceiling of this processor.