AMD Ryzen AI Embedded P185 vs Intel Core 9 270H Comparison

Head-to-Head Benchmarks

The recorded PassMark data presents a clear picture of the performance split between these two mobile processors. The AMD Ryzen AI Embedded P185 wins 9 of the 11 head-to-head comparisons, while the Intel Core 9 270H takes 2. The most decisive AMD victory comes in the extended instructions test, where it scores 26,544 versus Intel's 20,079, a 32.2% advantage. This is the largest delta in the entire comparison and suggests a significant difference in how the two chips handle advanced instruction sets and specialized workloads.

Integer math also shows a substantial gap. AMD scores 117,832 against Intel's 97,654, a 20.7% lead. This workload is often representative of general-purpose compute performance, and the margin here indicates that the AMD design holds a meaningful advantage in standard arithmetic processing. Data compression follows a similar pattern: AMD records 374,429 versus Intel's 333,785, a 12.2% edge that points to stronger throughput when handling compressed data streams.

The prime number finding test gives AMD a 15.2% win (129 versus 112), which typically reflects the efficiency of the processor's branch prediction and integer pipeline under iterative loads. Multithreaded performance also favors AMD, with a score of 31,817 compared to Intel's 28,764, a 10.6% lead. This result is particularly interesting because the Intel part has more physical cores (14 versus 12), yet the AMD chip still manages to pull ahead in the aggregate multithread workload.

Random string sorting shows AMD ahead by 10% (40,557 versus 36,867), another win in a memory-intensive operation. The data encryption test is much closer, with AMD scoring 19,612 versus Intel's 19,369, a slim 1.3% margin. Single-thread performance also goes to AMD, but by a hair: 3,977 versus 3,944, a 0.8% difference that puts the two essentially at parity for lightly threaded tasks.

The Intel Core 9 270H claims two wins. Floating point math is a near dead heat: Intel scores 70,640 versus AMD's 70,587, a 0.1% margin that is effectively a tie. The physics test is the clearest Intel victory, with a score of 1,966 against AMD's 1,772, a 9.9% advantage. This suggests Intel holds an edge in workloads that rely heavily on physics simulation and certain floating point operations.

Where Each One Wins

The benchmark distribution points to a clear workload split. The AMD Ryzen AI Embedded P185 dominates in data compression, encryption, extended instructions, prime number finding, integer math, multithreaded tasks, string sorting, and single-threaded performance. This is a broad sweep across both integer-heavy and general-purpose workloads. The 32.2% lead in extended instructions is the standout, indicating that applications leveraging modern instruction sets will see the largest benefit from the AMD processor.

The Intel Core 9 270H wins in physics simulation and floating point math. The physics test margin of 9.9% is the second-largest delta in the entire comparison, so this is not a trivial difference. The floating point win is minimal at 0.1%, but it does mean Intel edges out AMD in that specific category. For users running physics-based simulations, engineering calculations, or workloads that stress floating point pipelines, the Intel processor holds a measurable advantage. The AMD chip counterbalances this with its 20.7% lead in integer math, which covers a different but equally important class of computations.

Looking at the broader averages, the AMD part sits at a 93rd percentile ranking among all CPUs with an average benchmark score of 62,839. The Intel part ranks at the 86th percentile with an average score of 38,335. This large gap in average scores is driven by the fact that the AMD chip's PassMark results are consistently higher across most tests, while Intel's average is pulled down by its losses in the heavier workloads. The percentile difference of 7 points reflects the overall performance hierarchy between the two.

Architecture Differences

The underlying designs explain much of the observed performance gap. The AMD Ryzen AI Embedded P185 uses the Gorgon Point codename and belongs to the Ryzen AI Embedded generation built on Zen 5 and Zen 5c cores. It is manufactured on a 4 nm process at TSMC. The Intel Core 9 270H uses the Raptor Lake architecture, specifically the Raptor Lake-H variant from the Raptor Lake Refresh generation, built on a 10 nm process at Intel. The process node difference alone, 4 nm versus 10 nm, is substantial and likely contributes to the AMD chip's efficiency and performance advantages.

Core counts differ in an interesting way. The Intel part has 14 cores and 20 threads, while the AMD part has 12 cores and 24 threads. Despite having two fewer physical cores, the AMD chip supports four more threads, which explains its 10.6% lead in the multithreaded PassMark test. The AMD design clearly extracts more parallel throughput per core. Clock speeds also favor Intel on paper: the Intel part boosts to 5.80 GHz versus AMD's 5.10 GHz, and has a higher base clock of 2.70 GHz versus 2.00 GHz. Yet the AMD chip still wins the single-thread test by 0.8%, indicating that architectural efficiency outweighs raw clock speed in this comparison.

Cache configurations show notable differences. Both use 80 KB of L1 cache per core, but the L2 cache differs: AMD provides 1 MB per core while Intel provides 2 MB per core. The L3 cache also favors Intel, with 24 MB shared versus AMD's 16 MB. Despite having less cache at both levels, AMD wins the majority of benchmarks, which suggests that memory access patterns and cache management in the Zen 5 design are more effective for the tested workloads. The AMD chip also supports ECC memory, which Intel does not, and offers dual-channel DDR5 and LPDDR5X support with a memory bandwidth of 89.6 GB/s. Intel supports DDR4 and DDR5 but no ECC, and its memory bandwidth is not recorded in the database.

The PCIe capabilities differ as well. AMD provides Gen 4 with 16 lanes, while Intel provides Gen 5 with 8 lanes. The integrated graphics also differ: AMD uses the Radeon 890M, while Intel uses Iris Xe Graphics with 96 execution units. The AMD chip has a 233 mm² die size, while the Intel die size is not recorded. Both chips are locked (multiplier not unlocked) and target the mobile market segment. The AMD chip was released on 2026-02-28, while the Intel chip was released earlier on 2024-12-17. The Intel part has a launch MSRP of $697; the AMD part has no recorded launch MSRP.

The Verdict

The data points to the AMD Ryzen AI Embedded P185 as the stronger processor for most workloads. It wins 9 of 11 head-to-head benchmarks, including the multithreaded test where it overcomes a core deficit, and it holds a 7-point percentile advantage over the Intel part. The 32.2% lead in extended instructions and the 20.7% lead in integer math are the kind of margins that translate into real-world performance gains in compute-intensive applications. The AMD chip also supports ECC memory, which matters for reliability-sensitive embedded workloads.

The Intel Core 9 270H is the better choice for physics simulation workloads specifically. Its 9.9% win in the physics test is the largest Intel margin and indicates a genuine strength in that area. The floating point math result is effectively a tie, so Intel's advantage there is negligible. The Intel part also has a higher boost clock and more L3 cache, but these advantages do not translate into benchmark wins outside of physics.

For users prioritizing general compute performance, multithreaded throughput, integer processing, or extended instruction support, the AMD processor is the clear pick. For users running physics-heavy simulations or workloads that mirror that test, the Intel processor holds a specific edge. The average benchmark scores reinforce this: AMD at 62,839 versus Intel at 38,335, a difference that places the AMD part well above the Intel part in the overall CPU hierarchy.

FAQ

Q: Which processor wins the most head-to-head benchmark comparisons?

A: The AMD Ryzen AI Embedded P185 wins 9 of the 11 head-to-head comparisons, while the Intel Core 9 270H wins 2.

Q: What is the largest performance difference between the two processors?

A: The largest difference is in the extended instructions test, where the AMD Ryzen AI Embedded P185 scores 26,544 versus Intel's 20,079, a 32.2% advantage.

Q: Does the Intel Core 9 270H have more cores than the AMD Ryzen AI Embedded P185?

A: Yes, the Intel part has 14 cores and 20 threads, while the AMD part has 12 cores and 24 threads.

Q: In which benchmark does the Intel Core 9 270H have its biggest win?

A: The Intel Core 9 270H wins the physics test by 9.9%, scoring 1,966 versus AMD's 1,772.

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

A: The AMD Ryzen AI Embedded P185 scores 3,977 versus Intel's 3,944, a 0.8% advantage for AMD.

Q: What is the average benchmark score difference between the two?

A: The AMD Ryzen AI Embedded P185 has an average benchmark score of 62,839, while the Intel Core 9 270H has an average score of 38,335.

Specification Differences

The two processors differ on the following recorded specifications:

| Specification | AMD Ryzen AI Embedded P185 | Intel Core 9 270H |

|---|---|---|

| Cores | 12 | 14 |

| Threads | 24 | 20 |

| Base clock | 2.00 GHz | 2.70 GHz |

| Boost clock | 5.10 GHz | 5.80 GHz |

| TDP | 28 W | 45 W |

| Socket | AMD Socket FP8 | Intel BGA 1744 |

| Architecture | Zen 5 / Zen 5c | Raptor Lake |

| Codename | Gorgon Point | Raptor Lake-H |

| Process node | 4 nm | 10 nm |

| Foundry | TSMC | Intel |

| Die size | 233 mm² | Not recorded |

| L2 cache | 1 MB (per core) | 2 MB (per core) |

| L3 cache | 16 MB | 24 MB (shared) |

| Memory support | DDR5, LPDDR5X | DDR4, DDR5 |

| Memory bandwidth | 89.6 GB/s | Not recorded |

| ECC memory | Yes | No |

| PCIe | Gen 4, 16 Lanes | Gen 5, 8 Lanes |

| Integrated graphics | Radeon 890M | Iris Xe Graphics 96EU |

| Release date | 2026-02-28 | 2024-12-17 |

| Launch MSRP | Not recorded | $697 |

| Part number | Unknown | SRQ6V |

| Percentile vs all CPUs | 93 | 86 |

| Average benchmark score | 62,839 | 38,335 |