AMD Ryzen AI Embedded P132 vs Intel Core 9 273PTE Comparison

FAQ

Q: Which processor has the higher average benchmark score?

A: The AMD Ryzen AI Embedded P132 records an average benchmark score of 37804, while the Intel Core 9 273PTE records 31143. The AMD part sits at the 86th percentile of all CPUs, compared to the Intel part's 82nd percentile.

Q: What are the core and thread counts of each processor?

A: The AMD Ryzen AI Embedded P132 has 6 cores and 12 threads. The Intel Core 9 273PTE has 12 cores and 24 threads, exactly double in both counts.

Q: Which processor has the higher boost clock?

A: The Intel Core 9 273PTE boosts to 5.50 GHz, which is 1.00 GHz higher than the AMD Ryzen AI Embedded P132's 4.50 GHz boost. The AMD part has a higher base clock at 2.00 GHz versus 1.40 GHz.

Q: How do the two processors compare in single-thread performance?

A: The AMD Ryzen AI Embedded P132 wins the PassMark single-thread test with a score of 3713, which is 8.2% ahead of the Intel Core 9 273PTE's 3433.

Q: Which processor has the larger L3 cache?

A: The Intel Core 9 273PTE has 36 MB of shared L3 cache, compared to only 4 MB on the AMD Ryzen AI Embedded P132. Both have 80 KB of L1 per core, but Intel provides 2 MB of L2 per core versus AMD's 1 MB per core.

Q: What is the launch MSRP of the Intel Core 9 273PTE?

A: The Intel Core 9 273PTE has a launch MSRP of $549. The AMD Ryzen AI Embedded P132 has no launch MSRP recorded in the database.

Where Each One Wins

The benchmark split is heavily lopsided. The Intel Core 9 273PTE wins 8 of the 11 recorded head-to-head tests, while the AMD Ryzen AI Embedded P132 wins 3. The Intel part's wins are concentrated in throughput-oriented and physics-heavy workloads. Its largest margin comes in prime number finding, where it scores 142 versus 57, a 59.9% advantage. Floating point math also favors Intel strongly: 60673 versus 42248, a 30.4% gap. Physics simulation shows a 46.7% lead for Intel (1917 versus 1022), and integer math is 24.5% ahead (82411 versus 62249). Multithreaded performance favors Intel by 19.9% (24054 versus 19262), data compression by 10.9% (258704 versus 230437), data encryption by 19.7% (14253 versus 11444), and random string sorting by 13.1% (28973 versus 25181).

The AMD Ryzen AI Embedded P132 wins the remaining tests. Its most significant victory is single-thread performance: 3713 versus 3433, an 8.2% lead. It also wins extended instructions, scoring 16520 versus 15952, a 3.6% margin. These two wins suggest the AMD architecture has a per-core efficiency advantage, but the Intel part's doubling of cores and threads overwhelms that advantage in most multi-threaded workloads.

The use-case split is therefore clear. The AMD part is the better choice for lightly threaded applications and workloads that depend on raw single-core speed or extended instruction efficiency. The Intel part is the stronger option for heavily threaded rendering, physics, encryption, compression, and numeric processing. The data shows that the Intel part's 12-core, 24-thread configuration provides a broad performance umbrella across most parallel workloads.

Architecture Differences

The two processors come from fundamentally different design philosophies. The AMD Ryzen AI Embedded P132 uses the Gorgon Point codename and belongs to the Ryzen AI Embedded generation, which the database records as Zen 5 / Zen 5c. It is built on a 4 nm process at TSMC. The Intel Core 9 273PTE uses the Bartlett Lake codename and belongs to the Core 9 generation. It is built on a 10 nm process at Intel's own foundry.

The core configurations diverge sharply. AMD ships 6 cores and 12 threads, while Intel ships 12 cores and 24 threads. The cache hierarchy also differs. AMD provides 1 MB of L2 per core and only 4 MB of total L3. Intel provides 2 MB of L2 per core and 36 MB of shared L3. This ninefold difference in L3 capacity is a major architectural distinction, and it helps explain why Intel wins memory-sensitive workloads such as data compression and random string sorting.

Both processors support ECC memory and dual-channel memory buses, and both record the same memory bandwidth figure of 89.6 GB/s. However, memory type support differs. The AMD part supports DDR5 and LPDDR5X, while the Intel part supports DDR4 and DDR5. The Intel part also has a different PCIe implementation: Gen 5 with 16 lanes (CPU only), versus Gen 4 with 14 lanes (CPU only) on the AMD side.

The integrated graphics differ as well. AMD uses the Radeon 840M, while Intel uses UHD Graphics 730. The production status for both is Active, and both share the same release date of 2026-03-08. The AMD part is classified as a Mobile segment processor, while the Intel part is classified as Desktop. The Intel part has a part number of SA4QJ, while the AMD part's part number is unknown. Neither processor has an unlocked multiplier.

Specification Differences

The recorded specifications show several direct contrasts. Core count: 6 on AMD versus 12 on Intel. Thread count: 12 versus 24. Base clock: 2.00 GHz on AMD versus 1.40 GHz on Intel. Boost clock: 4.50 GHz on AMD versus 5.50 GHz on Intel. TDP: 28 W on AMD versus 45 W on Intel. Socket: AMD Socket FP8 versus Intel Socket 1700. Process node: 4 nm TSMC versus 10 nm Intel. Foundry: TSMC versus Intel.

Cache differences are substantial. L1 is identical at 80 KB per core. L2 is 1 MB per core on AMD versus 2 MB per core on Intel. L3 is 4 MB on AMD versus 36 MB shared on Intel. Memory support: DDR5 and LPDDR5X on AMD, DDR4 and DDR5 on Intel. PCIe: Gen 4 with 14 lanes on AMD, Gen 5 with 16 lanes on Intel. Integrated graphics: Radeon 840M on AMD, UHD Graphics 730 on Intel. Market segment: Mobile on AMD, Desktop on Intel. The Intel part carries a launch MSRP of $549; the AMD part has none recorded.

Head-to-Head Benchmarks

The most decisive Intel win is in prime number finding. The Intel Core 9 273PTE scores 142, while the AMD Ryzen AI Embedded P132 scores 57. That is a 59.9% advantage, the largest delta in the entire comparison. The result reflects the Intel part's higher core count and higher boost clock of 5.50 GHz acting together on a workload that scales well with parallel integer operations.

Physics simulation shows a similarly large gap. Intel scores 1917 versus AMD's 1022, a 46.7% lead. Floating point math also goes heavily to Intel: 60673 versus 42248, a 30.4% margin. Integer math follows the same pattern with 82411 versus 62249, a 24.5% lead. The multithread test gives Intel a 19.9% advantage (24054 versus 19262), confirming that the Intel part's parallel throughput is consistently higher across diverse workload types.

Data encryption shows a 19.7% Intel lead (14253 versus 11444). Random string sorting is 13.1% in Intel's favor (28973 versus 25181). Data compression shows the smallest Intel win among the throughput tests at 10.9% (258704 versus 230437). These three tests all benefit from the Intel part's 36 MB L3 cache and larger L2 per core.

The AMD Ryzen AI Embedded P132 takes the single-thread test decisively: 3713 versus 3433, an 8.2% lead. This is notable because Intel has a 1.00 GHz boost clock advantage. The AMD result indicates that the Zen 5 / Zen 5c architecture extracts more instructions per clock in single-threaded execution. Extended instructions also go to AMD, with a 3.6% margin (16520 versus 15952), showing a small but measurable advantage in specialized instruction throughput.

The overall pattern is consistent. The Intel Core 9 273PTE uses its 12 cores, 24 threads, larger caches, and higher boost clock to dominate parallel workloads. The AMD Ryzen AI Embedded P132 counters with superior single-thread execution and slightly better extended instruction handling, but it cannot overcome the core count deficit in the remaining tests. The benchmark data records 8 wins for Intel and 3 for AMD, with Intel's average delta across its wins being far larger than AMD's average delta across its wins. The AMD part's average benchmark score of 37804 still ranks higher than Intel's 31143, but that average is heavily influenced by the AMD part's stronger showing in the single-thread and extended instruction tests, which are weighted evenly with the throughput tests in the aggregate calculation.