AMD Ryzen AI Embedded P132 vs Intel Core 5 120U Comparison

Head-to-Head Benchmarks

The recorded data shows a decisive sweep: the AMD Ryzen AI Embedded P132 wins all 11 shared benchmark comparisons against the Intel Core 5 120U. The largest margin appears in extended instruction workloads, where the AMD part scores 16,520 against Intel’s 9,299, a 77.7% advantage. This gap indicates substantially stronger SIMD or specialized instruction throughput, a meaningful edge for embedded workloads that rely on encryption, compression, or vectorized math.

Data compression is another major differentiator. The AMD chip records 230,437 in PassMark data compression, while the Intel chip manages 166,432, a 38.5% lead. Random string sorting follows a similar pattern: 25,181 versus 19,060, a 32.1% delta. These results point to superior memory subsystem behavior and integer sorting efficiency on the AMD side, likely driven by its newer core architecture and higher memory bandwidth of 89.6 GB/s, a figure not matched in the Intel data.

Multithreaded performance shows a 28.1% gap, with the AMD part scoring 19,262 against 15,042. That is notable because the Intel chip has 10 cores versus 6, yet the AMD processor still pulls ahead by nearly a third in the aggregate PassMark multithread test. The Intel Core 5 120U’s higher boost clock of 5.00 GHz does not compensate for the core design differences. Integer math scores 62,249 versus 52,280, a 19.1% advantage for AMD, and floating-point math shows 42,248 versus 36,026, a 17.3% lead.

Even in single-threaded performance, where the Intel part’s 5.00 GHz boost clock might be expected to dominate, the AMD chip takes the win: 3,713 versus 3,479, a 6.7% margin. The same delta appears in the duplicate single-thread test entry. Physics simulation scores 1,022 versus 937, a 9.1% lead, and prime number finding shows 57 versus 53, a 7.5% edge. Data encryption is closer, 11,444 versus 10,453, but still favors AMD by 9.5%.

The overall average benchmark score tells a similar story. The AMD Ryzen AI Embedded P132 averages 37,804 across all recorded benchmarks, placing it in the 86th percentile of all CPUs in the database. The Intel Core 5 120U averages 17,898, sitting in the 72nd percentile. The AMD part’s nearest rivals in the database include the AMD Ryzen AI 9 HX 370 (average 37,904, delta -0.3%) and the Intel Core i9-14901E (average 37,911, delta -0.3%), placing it in high-end mobile territory. The Intel 120U’s nearest rivals are markedly slower: the AMD Ryzen 5 3600XT (average 17,891, delta 0%) and the Intel Core 5 221TE (average 17,860, delta 0.2%). In short, the two processors occupy entirely different performance tiers despite sharing the same thread count of 12.

FAQ

Q: Which processor has more cores?

A: The Intel Core 5 120U has 10 cores, while the AMD Ryzen AI Embedded P132 has 6 cores. Both support 12 threads.

Q: Does the AMD chip win every benchmark listed in the comparison?

A: Yes. Across all 11 head-to-head benchmark entries, the AMD Ryzen AI Embedded P132 wins every test, with deltas ranging from 6.7% in single-threaded performance to 77.7% in extended instructions.

Q: What is the memory bandwidth difference?

A: The AMD part supports 89.6 GB/s of memory bandwidth, while the Intel part has no bandwidth figure recorded in the database. The AMD chip also supports LPDDR5X memory in addition to DDR5, whereas Intel supports DDR4 and DDR5.

Q: Which processor has a higher boost clock?

A: The Intel Core 5 120U boosts to 5.00 GHz, higher than the AMD Ryzen AI Embedded P132’s 4.50 GHz. Despite this, the AMD chip still wins single-threaded benchmarks by 6.7%.

Q: How do their average benchmark scores compare?

A: The AMD Ryzen AI Embedded P132 records an average benchmark score of 37,804, more than double the Intel Core 5 120U’s 17,898. The AMD chip also sits in the 86th percentile of all CPUs, compared to Intel’s 72nd percentile.

Q: Does the Intel chip support ECC memory?

A: No. The Intel Core 5 120U does not support ECC memory, while the AMD Ryzen AI Embedded P132 does support ECC memory.

Q: What are the release dates?

A: The Intel Core 5 120U was released on January 7, 2024. The AMD Ryzen AI Embedded P132 was released later, on March 8, 2026.

Where Each One Wins

The AMD Ryzen AI Embedded P132 wins every measured category in the database, so the use-case split is not about performance advantages for Intel. Instead, the differentiators lie in platform features, power envelope, and specific workload profiles.

For compute-heavy embedded applications, the AMD part is the clear choice. Its extended instruction lead of 77.7% over Intel makes it suited for cryptography, signal processing, or any workload that uses AVX-512-style or similar extended instructions. Data compression and random string sorting advantages (38.5% and 32.1% respectively) favor database compression, log processing, and in-memory data management tasks. Multithreaded workloads such as virtualization, container orchestration, or parallel rendering would also benefit from the 28.1% multithread advantage.

The Intel Core 5 120U, despite losing every benchmark, still offers a lower thermal design power of 15 watts versus AMD’s 28 watts. That makes it attractive for fanless or passively cooled embedded systems where power draw is a primary constraint. Its 10-core layout, while not translating to a win in the recorded tests, may provide more scheduling flexibility for bursty workloads with many short-lived threads, even if the aggregate throughput is lower. The Intel chip also supports DDR4 memory, which can be cheaper or more readily available in legacy embedded designs, whereas the AMD chip only lists DDR5 and LPDDR5X support.

For single-threaded tasks, the AMD chip wins narrowly at 6.7%, so the Intel part’s 5.00 GHz boost clock is not enough to claim that segment. For ECC memory requirements, the AMD part is the only option between the two, a critical factor for reliability-sensitive embedded deployments such as edge servers or industrial controllers. Finally, the AMD chip’s PCIe Gen 4 implementation offers 14 lanes (CPU only), while Intel provides 8 lanes (CPU only), so the AMD part supports more direct high-speed device connectivity.

Specification Differences

The two processors differ in nearly every core specification. The AMD Ryzen AI Embedded P132 uses 6 cores and 12 threads, while the Intel Core 5 120U uses 10 cores and 12 threads. Base clocks differ: AMD starts at 2.00 GHz, Intel at 1.40 GHz. Boost clocks also differ, with Intel reaching 5.00 GHz and AMD reaching 4.50 GHz. The thermal design power is 28 watts for AMD and 15 watts for Intel.

Cache structures are not directly comparable. AMD lists 80 KB L1 per core and 1 MB L2 per core, with 4 MB of L3. Intel lists 80 KB L1 per core, 1.25 MB L2 per core, and 12 MB of shared L3. The total L2 capacity is therefore higher on Intel (12.5 MB across 10 cores versus 6 MB across 6 cores), and Intel’s L3 is three times larger. However, AMD’s memory bandwidth is specified at 89.6 GB/s, while Intel’s is not recorded.

Memory support differs: AMD supports DDR5 and LPDDR5X, while Intel supports DDR4 and DDR5. ECC memory is available on AMD but not on Intel. PCIe configurations also differ: AMD provides Gen 4 with 14 lanes (CPU only), Intel provides Gen 4 with 8 lanes (CPU only). The integrated graphics units are distinct as well: AMD uses the Radeon 840M, Intel uses the Iris Xe Graphics 80EU.

The socket and platform differ completely. AMD uses AMD Socket FP8, Intel uses Intel BGA 1744. The AMD part is built on a 4 nm process at TSMC, while Intel uses a 10 nm process at Intel’s own foundry. The AMD chip is part of the Ryzen AI Embedded series under the Gorgon Point codename, with a generation label of “Ryzen AI Embedded (Zen 5 / Zen 5c)”. Intel’s part is a Raptor Lake-U, under the Raptor Lake architecture, with a generation label of “Core 5 (Raptor Lake-U)”. The Intel part has a known part number, SRM7P, while AMD’s part number is listed as unknown in the database.

Architecture Differences

The architectural split is stark. AMD’s Gorgon Point silicon uses a 4 nm TSMC process with a hybrid Zen 5 / Zen 5c core configuration. Intel’s Raptor Lake-U uses a 10 nm Intel process. The process node difference alone explains much of the efficiency and performance gap: AMD achieves a higher average benchmark score (37,804 versus 17,898) while drawing 28 watts, which is still higher than Intel’s 15-watt TDP, but the performance per watt is dramatically in AMD’s favor.

AMD’s core design, based on Zen 5 / Zen 5c, combines high-performance and high-efficiency cores in a single die. The Intel Raptor Lake-U also uses a hybrid architecture, but the database does not specify core type breakdown for either part; it only lists total core and thread counts. The AMD chip’s 4 MB L3 cache is smaller than Intel’s 12 MB shared L3, yet the AMD chip still wins all memory-sensitive benchmarks such as data compression and random string sorting. This suggests that AMD’s memory bandwidth (89.6 GB/s) and newer memory controller design compensate for the smaller cache.

The Intel part’s larger cache (1.25 MB L2 per core versus 1 MB per core, and 12 MB shared L3 versus 4 MB) does not yield a win in any recorded test. The extended instructions benchmark, where AMD leads by 77.7%, likely reflects architectural improvements in the Zen 5 cores, such as wider SIMD execution or better instruction scheduling. The 10 nm Intel process limits clock scaling efficiency, and while the boost clock reaches 5.00 GHz, the single-thread score of 3,479 still trails AMD’s 3,713.

Foundry choice also matters: AMD uses TSMC’s 4 nm node, which is more advanced than Intel’s 10 nm node for this product. The Intel part’s release date of January 7, 2024, predates AMD’s March 8, 2026 release, so the AMD chip benefits from newer design techniques. The AMD part also integrates a Radeon 840M GPU versus Intel’s Iris Xe Graphics 80EU, though no graphics benchmarks are recorded in the database. The inclusion of ECC support on AMD and its absence on Intel further highlights the AMD chip’s positioning for embedded reliability work. PCIe lane count differences (14 versus 8) indicate AMD’s platform can handle more direct device attachments without a separate chipset.