AMD Ryzen AI 7 345 vs AMD Ryzen AI Embedded P132 Comparison

Where Each One Wins

The benchmark data presents an unusually one-sided picture. Across all 11 recorded head-to-head tests, the AMD Ryzen AI 7 345 takes the win. The AMD Ryzen AI Embedded P132 does not secure a single victory in any measured workload. This does not mean the Embedded part is weak, it means the mobile-oriented Ryzen AI 7 345 consistently delivers higher raw throughput in every category the database tracks.

The largest gaps appear in compute-integrity and single-thread workloads. The Ryzen AI 7 345 leads by 8.8% in the find prime numbers test, by 6.6% in the physics test, and by 4.4% in single-thread performance. These are meaningful margins for tasks that depend on per-core efficiency and branch-heavy integer work. The Embedded P132 trails by smaller amounts in floating-point math, random string sorting, and integer math, where the deltas range from 0.9% to 2%. For workloads that are heavily parallel but not latency-sensitive, the two processors are close.

The Ryzen AI 7 345 also holds an edge in memory-and-data exercises. Data compression runs 3.1% faster, data encryption runs 3.2% faster, and multithread throughput is 3.5% higher. Extended instruction throughput favors the Ryzen AI 7 345 by 2.9%. The pattern is consistent: the Ryzen AI 7 345 wins every discipline, but the size of the advantage depends on the workload class.

In terms of overall database standing, the Ryzen AI 7 345 sits at the 81st percentile among all CPUs, while the Embedded P132 ranks higher at the 86th percentile. The Embedded part has a higher average benchmark score of 37804 against 29461 for the Ryzen AI 7 345. This apparent contradiction is explained by the composition of the averages. The Embedded P132's average includes a broader set of benchmark results beyond the head-to-head tests, and its nearest rivals include the AMD Ryzen AI 9 HX 370, a higher-tier part. The Ryzen AI 7 345, by contrast, is bracketed by the AMD Ryzen 7 3800X and the Intel Core i5-13500HX. The head-to-head sweep shows the Ryzen AI 7 345 is faster in direct comparison, but the Embedded P132 occupies a higher position in the aggregate database ranking.

FAQ

Q: Which processor wins in single-thread performance?

A: The AMD Ryzen AI 7 345 records a single-thread score of 3875, while the AMD Ryzen AI Embedded P132 scores 3713. The Ryzen AI 7 345 leads by 4.4%.

Q: Is there any benchmark where the AMD Ryzen AI Embedded P132 wins?

A: No. The database lists 11 head-to-head tests, and the Ryzen AI 7 345 wins all 11. The Embedded P132's closest result is floating-point math, where it trails by only 0.9%.

Q: How do the two processors compare in multithreaded workloads?

A: The Ryzen AI 7 345 scores 19927 in the PassMark multithread test, and the Embedded P132 scores 19262. The Ryzen AI 7 345 is 3.5% faster.

Q: Which chip has the higher overall database percentile?

A: The AMD Ryzen AI Embedded P132 ranks at the 86th percentile among all CPUs. The AMD Ryzen AI 7 345 ranks at the 81st percentile. The Embedded part also has a higher average benchmark score of 37804 versus 29461.

Q: Do both processors support ECC memory?

A: No. The AMD Ryzen AI Embedded P132 supports ECC memory, while the AMD Ryzen AI 7 345 does not.

Q: Are the core and thread counts identical?

A: Yes. Both parts have 6 cores and 12 threads. They also share the same 4 MB L3 cache, 1 MB L2 per core, and 80 KB L1 per core.

Head-to-Head Benchmarks

The closest contest is floating-point math. The Ryzen AI 7 345 posts 42621 against 42248 for the Embedded P132, a margin of only 0.9%. Random string sorting is nearly as tight, with the Ryzen AI 7 345 at 25435 and the Embedded P132 at 25181, a 1% gap. Integer math favors the Ryzen AI 7 345 by 2%, at 63475 versus 62249. These narrow differences suggest that for heavy number-crunching and sorting workloads, the two chips are effectively interchangeable in practice.

The middle tier of results shows a clearer separation. Data compression goes to the Ryzen AI 7 345 at 237484, which is 3.1% ahead of the Embedded P132's 230437. Data encryption follows the same pattern: 11814 for the Ryzen AI 7 345, 11444 for the Embedded P132, a 3.2% lead. Extended instructions produce a 2.9% advantage for the Ryzen AI 7 345, with scores of 17003 and 16520. Multithread throughput is 3.5% higher on the Ryzen AI 7 345, at 19927 versus 19262. These results indicate that the Ryzen AI 7 345 handles encryption, compression, and broad multi-core instruction streams with a consistent, if moderate, advantage.

The largest wins belong to the Ryzen AI 7 345 in single-thread and physics workloads. The single-thread test shows 3875 versus 3713, a 4.4% lead. Physics jumps to 1089 versus 1022, a 6.6% gap. The biggest single margin is in the find prime numbers test, where the Ryzen AI 7 345 scores 62 and the Embedded P132 scores 57, an 8.8% difference. Prime-number searching is a classic integer-heavy, branch-dependent workload, and this result suggests the Ryzen AI 7 345 has a notable edge in that specific instruction pattern.

The boost clock difference likely contributes to these results. The Ryzen AI 7 345 boosts to 4.60 GHz, while the Embedded P132 boosts to 4.50 GHz. Both share a 2.00 GHz base clock, a 28 W TDP, and the same 6-core, 12-thread configuration. The higher boost clock on the Ryzen AI 7 345 aligns with its wins in single-thread and latency-sensitive tests.

Specification Differences

The two processors share most of their core specification sheet. Both use AMD Socket FP8, both are built on TSMC's 4 nm process, and both have a 28 W TDP. Core and thread counts match at 6 and 12. Cache hierarchies are identical: 80 KB L1 per core, 1 MB L2 per core, and 4 MB L3. Memory support is the same DDR5 and LPDDR5X with dual-channel operation and 89.6 GB/s bandwidth. Both feature Radeon 840M integrated graphics, PCIe Gen 4 with 14 CPU lanes, and neither has an unlocked multiplier.

The differences are few but meaningful. The Ryzen AI 7 345 boosts to 4.60 GHz, the Embedded P132 to 4.50 GHz. The Ryzen AI 7 345 does not support ECC memory; the Embedded P132 does. The Ryzen AI 7 345 uses the Krackan Point codename and belongs to the Ryzen AI 300 generation built on Zen 5 and Zen 5c. The Embedded P132 uses the Gorgon Point codename and belongs to the Ryzen AI Embedded generation, also built on Zen 5 and Zen 5c.

Release timing differs. The Ryzen AI 7 345 has a release date of 2025-01-14, while the Embedded P132 is dated 2026-03-08. The Ryzen AI 7 345 carries part number 100-000002122, while the Embedded P132's part number is listed as unknown. The Ryzen AI 7 345 is classified as a Mobile segment part, and the Embedded P132 is also classified as Mobile. Both are listed as Active in production status.

Architecture Differences

Both processors are built on the same fundamental architecture: TSMC 4 nm, Zen 5 and Zen 5c core complex, and identical cache geometry. The architectural distinction lies in their codenames and target design philosophies. Krackan Point, the Ryzen AI 7 345, is a standard mobile processor generation. Gorgon Point, the Embedded P132, is positioned as an embedded variant within the Ryzen AI Embedded lineup.

The most significant architectural feature split is ECC memory support. The Embedded P132 includes ECC capability, which aligns with embedded and industrial use cases where data integrity is prioritized. The Ryzen AI 7 345 omits ECC, consistent with a mainstream mobile focus. This single feature difference is the clearest architectural divergence between the two.

Both parts integrate the same Radeon 840M graphics and the same LPDDR5X and DDR5 memory controllers. Both run on the same FP8 socket and use the same PCIe Gen 4 connectivity with 14 CPU lanes. The boost clock delta of 0.10 GHz is the only performance-relevant architectural difference beyond ECC support.

The generation labels differ: the Ryzen AI 7 345 is listed under Ryzen AI 300, while the Embedded P132 is listed under Ryzen AI Embedded. Both generations rely on the Zen 5 and Zen 5c hybrid core arrangement. The release cadence places the Embedded part roughly 14 months after the mobile part, which may reflect a longer validation cycle for embedded reliability standards. The recorded data shows identical core counts, identical cache, and identical memory bandwidth, so the architectural story is one of shared foundation with a targeted ECC addition and a slightly lower boost clock on the embedded side.