AMD Ryzen AI Embedded P174 vs Intel Core 5 130HL Comparison

Head-to-Head Benchmarks

The recorded database contains no head-to-head benchmark results for the AMD Ryzen AI Embedded P174 versus the Intel Core 5 130HL. Neither processor has a submitted average benchmark score, and both sit at the 50th percentile against all CPUs in the database. This means the two chips cannot be ranked against each other using measured performance data at this time. The absence of scores is itself a meaningful data point: any comparison between these two parts must rely on architectural and specification differences rather than empirical test results.

Neither processor shows a win count in direct comparison. The AMD part records zero wins, and the Intel part records zero wins. With no benchmark entries, no percentile advantage can be calculated, and no delta percentage exists to report. Buyers or system integrators looking for a decisive performance leader will not find one in the current database. The data simply has not been populated for either chip.

What can be stated from the existing records is that both processors are active production parts. They occupy the same percentile rank, which indicates that neither has an established performance footprint in the database. Future benchmark submissions would be required to establish a head-to-head performance relationship.

FAQ

Q: Which processor has more cores?

A: The Intel Core 5 130HL has 12 cores, while the AMD Ryzen AI Embedded P174 has 10 cores. However, the AMD part has 20 threads versus 16 threads for the Intel part, meaning the AMD chip can handle more concurrent threads despite having fewer physical cores.

Q: What is the difference in boost clock speeds?

A: The AMD Ryzen AI Embedded P174 boosts to 5.00 GHz, while the Intel Core 5 130HL boosts to 4.80 GHz. The AMD chip holds a 0.20 GHz advantage at maximum boost.

Q: Do both processors support ECC memory?

A: No. The AMD Ryzen AI Embedded P174 supports ECC memory, while the Intel Core 5 130HL does not.

Q: What sockets do these processors use?

A: The AMD Ryzen AI Embedded P174 uses AMD Socket FP8, and the Intel Core 5 130HL uses Intel Socket 1700. These sockets are not interchangeable.

Q: What process nodes are used by each chip?

A: The AMD Ryzen AI Embedded P174 is built on a 4 nm process at TSMC, while the Intel Core 5 130HL uses a 10 nm process at Intel.

Q: Which processor has a higher base clock?

A: The Intel Core 5 130HL has a base clock of 2.60 GHz, which is higher than the AMD Ryzen AI Embedded P174's 2.00 GHz base clock.

Architecture Differences

The AMD Ryzen AI Embedded P174 belongs to the Gorgon Point codename family and is classified under the Ryzen AI Embedded generation, which uses Zen 5 and Zen 5c cores. It is fabricated on a 4 nm process at TSMC with a die size of 233 mm². The chip contains 10 cores and 20 threads, indicating a hybrid arrangement of full Zen 5 cores and denser Zen 5c cores. Its L1 cache is listed at 80 KB per core, L2 cache at 1 MB per core, and L3 cache at 16 MB. The processor supports DDR5 and LPDDR5X memory over a dual-channel bus, with a memory bandwidth of 89.6 GB/s. It includes ECC memory support, which is a notable feature for embedded and reliability-focused workloads. PCIe connectivity is Gen 4 with 16 lanes available from the CPU. The integrated graphics unit is the Radeon 880M.

The Intel Core 5 130HL is built on the Raptor Lake architecture, specifically the Raptor Lake-PS codename, and is part of the Core 5 generation. It uses a 10 nm process at Intel and has 12 cores with 16 threads, which indicates a mix of performance and efficiency cores where not all cores contribute an additional thread. The L1 cache is also 80 KB per core, but L2 cache is larger at 2 MB per core, and L3 cache is 18 MB shared across the chip. Memory support includes both DDR4 and DDR5 over a dual-channel bus, but no memory bandwidth figure is recorded in the database. ECC memory is not supported. PCIe connectivity is Gen 4 with only 8 lanes from the CPU, half the lane count of the AMD part. The integrated graphics are Iris Xe Graphics with 80 execution units.

The process node difference is substantial: the AMD chip uses a 4 nm process, while the Intel chip uses a 10 nm process. This generational gap in manufacturing technology likely contributes to the power and thermal characteristics of each part, though no efficiency metrics are recorded in the database. The AMD chip is marked for the mobile market segment, while the Intel chip is marked for the desktop segment. The AMD part is also newer, with a release date in 2026 compared to the Intel part's 2024 release.

Cache architecture differs in organization. The AMD chip uses per-core L2 at 1 MB, while the Intel chip uses per-core L2 at 2 MB, giving the Intel part a larger pool of L2 for each core. However, the AMD chip offers 20 threads versus 16, which may improve throughput in heavily threaded workloads. The Intel chip has 18 MB of shared L3, while the AMD chip has 16 MB of L3, a 2 MB difference in favor of Intel.

The Verdict

The data supports a split decision based on workload type. For multi-threaded throughput, the AMD Ryzen AI Embedded P174 holds the advantage with 20 threads compared to 16 on the Intel Core 5 130HL. The AMD chip also offers a higher boost clock of 5.00 GHz versus 4.80 GHz, a more advanced 4 nm process, ECC memory support, and double the PCIe Gen 4 lanes at 16 versus 8. These specifications position the AMD part for embedded workloads that require memory reliability, higher thread counts, and more expansion bandwidth.

For single-thread and lightly threaded tasks, the Intel Core 5 130HL presents a stronger case. It has a higher base clock of 2.60 GHz versus 2.00 GHz, 12 cores compared to 10, a larger L2 cache at 2 MB per core, and 18 MB of shared L3 versus 16 MB. The Intel chip also supports both DDR4 and DDR5 memory, which offers broader compatibility with existing platforms, and it uses the Intel Socket 1700, a widely deployed desktop socket.

The lack of benchmark scores means neither chip can be declared the overall performance winner. The database shows both at the 50th percentile with no average scores. System integrators should weigh the architectural differences directly. The AMD part is the more modern design with a smaller process node, higher boost clock, more threads, ECC support, and more PCIe lanes. The Intel part counters with more cores, a higher base clock, more cache, and a desktop-oriented socket with broader memory compatibility. Neither chip has an unlocked multiplier, so overclocking is not a differentiator.

Specification Differences

The two processors differ across nearly every major specification category. The AMD Ryzen AI Embedded P174 uses 10 cores and 20 threads, while the Intel Core 5 130HL uses 12 cores and 16 threads. Base clocks are 2.00 GHz for AMD and 2.60 GHz for Intel, while boost clocks are 5.00 GHz for AMD and 4.80 GHz for Intel. Thermal design power is 28 watts for the AMD chip and 45 watts for the Intel chip, a 17 watt difference in favor of AMD's lower power envelope.

Sockets differ completely: AMD uses Socket FP8, and Intel uses Socket 1700. The process node is 4 nm at TSMC for AMD versus 10 nm at Intel for the Intel chip. The AMD die is 233 mm², while no die size is recorded for Intel. L2 cache is 1 MB per core for AMD and 2 MB per core for Intel. L3 cache is 16 MB for AMD and 18 MB shared for Intel. Memory support is DDR5 and LPDDR5X for AMD, versus DDR4 and DDR5 for Intel. Memory bandwidth is recorded at 89.6 GB/s for AMD, with no figure for Intel. ECC memory is supported on AMD but not on Intel. PCIe is Gen 4 with 16 lanes for AMD and Gen 4 with 8 lanes for Intel. Integrated graphics are Radeon 880M for AMD and Iris Xe Graphics 80EU for Intel. Market segments are mobile for AMD and desktop for Intel. Release dates are February 2026 for AMD and April 2024 for Intel. Both parts are active, both lack a recorded launch MSRP, and both have locked multipliers.

Where Each One Wins

The AMD Ryzen AI Embedded P174 wins in scenarios that demand high thread counts. Its 20 threads exceed the Intel part's 16 threads, which benefits parallel workloads such as virtualization, software compilation, and multi-instance embedded processing. The higher 5.00 GHz boost clock gives it an advantage in burst workloads where clock speed matters. The 4 nm process at TSMC, combined with a 28 watt TDP, positions it for power-sensitive embedded deployments. ECC memory support makes it suitable for applications where data integrity is critical, such as edge servers, industrial controllers, and networking appliances. The 16 PCIe Gen 4 lanes provide more headroom for expansion cards, accelerators, or high-speed storage compared to the Intel chip's 8 lanes. The 89.6 GB/s memory bandwidth is a recorded advantage, though no comparable figure exists for the Intel part.

The Intel Core 5 130HL wins in scenarios that favor more physical cores and higher base clocks. Its 12 cores exceed the AMD chip's 10 cores, which can matter in workloads that scale with core count but not thread count. The 2.60 GHz base clock is 0.60 GHz higher than the AMD chip, giving it a sustained frequency advantage under all-core loads. The larger L2 cache at 2 MB per core and 18 MB of shared L3 provide a cache capacity advantage. DDR4 support broadens platform compatibility, allowing the Intel chip to be paired with older or lower-cost memory infrastructure. The desktop market segment and Intel Socket 1700 make it a candidate for embedded desktop systems, industrial PCs, and edge gateways that use standard desktop boards. The 45 watt TDP indicates a higher power budget, which may allow for more sustained performance in thermally unconstrained chassis.

The recorded data does not assign either chip a performance victory in any specific application category. The wins are architectural and specification-based. AMD leads in thread count, boost clock, process node, power efficiency, ECC support, PCIe lane count, and mobile integration. Intel leads in core count, base clock, L2 and L3 cache capacity, memory type flexibility, and desktop platform compatibility. Without benchmark submissions, the database cannot confirm which chip delivers higher real-world performance in any given workload.