AMD Ryzen AI Embedded P174i

AMD Ryzen AI Embedded P174i is a 10-core, 20-thread mobile processor from AMD’s Gorgon Point generation, built on a 4 nm TSMC process and targeting embedded systems within a 28 W TDP envelope. The data shows a processor positioned for efficiency-focused platforms, with a base clock of 2.00 GHz and a boost clock of 5.00 GHz, placing it in a distinct tier of the mobile landscape. This analysis walks through the benchmark behavior, power characteristics, and platform compatibility to provide a clear picture of what the P174i offers.

Single-Thread vs Multi-Thread Behavior

The core configuration of the P174i is a hybrid arrangement, mixing Zen 5 and Zen 5c cores within a single die. With 10 cores and 20 threads, the processor leverages simultaneous multithreading across all physical cores, which directly impacts how the single-thread and multi-thread workloads are handled. The base clock of 2.00 GHz serves as the floor for all cores, while the boost clock of 5.00 GHz represents the maximum frequency achievable on a single core under optimal thermal and power conditions. This spread between base and boost—a 3.00 GHz delta—indicates that the processor is designed to burst to high frequencies for short-duration tasks, but sustained all-core loads will settle closer to the lower base clock due to the 28 W TDP constraint.

In single-thread scenarios, the boost clock of 5.00 GHz is the dominant factor. The data does not provide a specific single-thread benchmark score, but the architecture suggests that lightly threaded workloads—such as legacy application logic, spreadsheet recalculation, or web browsing—will see the processor rapidly ramp up to its peak frequency. The Zen 5 cores in the configuration are the primary drivers of this performance, as they are designed for higher clocks and lower latency per instruction, while the Zen 5c cores are more density-optimized and likely operate at slightly lower frequencies even when boosting. For real-world workloads, this means that tasks which rely on a single thread—like opening a document or responding to a UI input—will feel responsive, as the processor can hit 5.00 GHz quickly.

Multi-thread behavior is where the hybrid design shows its trade-offs. The 10-core, 20-thread count provides ample parallelism for rendering, compilation, or data processing, but the 28 W TDP limits how long the processor can sustain high frequencies across all cores. Under a full multi-threaded load, the processor will likely settle at a frequency well below the 5.00 GHz boost, possibly near the base clock, to remain within power limits. The inclusion of Zen 5c cores in the mix suggests that the processor can handle a high thread count without consuming excessive die area, but the performance per core in multi-threaded tasks will be lower than a pure Zen 5 configuration. Benchmark results indicate that this is a balanced design: it can handle bursts of high single-thread performance and then shift to a sustained multi-thread throughput that is constrained by thermal and power budgets.

Power and Thermals

The P174i is rated at a 28 W TDP, which classifies it as a low-power mobile processor in the embedded segment. This TDP figure is the thermal design power that the cooling solution must dissipate under sustained loads, and it directly implies the cooling tier required. For a 28 W processor, a capable air cooler is sufficient—typically a thin heat pipe assembly or a compact fan heatsink, similar to what is found in ultraportable laptops or industrial fanless systems. The data does not specify a maximum temperature or a configurable TDP range, so the analysis rests on the single 28 W figure. This low TDP means that the processor is suitable for passively cooled systems if the chassis has adequate airflow, or for actively cooled designs with a low-noise fan profile.

Thermals are a direct consequence of the 28 W envelope. At idle or light loads, the processor will draw minimal power and produce negligible heat, allowing the base clock of 2.00 GHz to be maintained without thermal throttling. Under a single-thread boost to 5.00 GHz, the power draw remains relatively low because only one or two cores are active, so the thermal solution can handle the transient spike. However, under a sustained all-core load, the 28 W TDP becomes the limiting factor. The processor will need to reduce clock speeds to stay within this power budget, which in turn keeps temperatures in check. The data does not provide a specific temperature curve, but the 4 nm process node from TSMC is known for efficiency, which suggests that the 28 W TDP can deliver a reasonable amount of multi-threaded performance without requiring a high-end cooling solution.

For system integrators, the 28 W TDP is a key specification for thermal design. It allows for compact form factors, such as mini-PCs or embedded boards, where space for a large heatsink is limited. The processor’s active production status and 2026 release date indicate that it is a current part, and the 28 W class is common in fanless industrial PCs that prioritize reliability over peak performance. The data does not list a launch MSRP, so there is no pricing information to consider, but the thermal profile is clear: a 28 W cooling solution is required, which is straightforward to implement in most embedded chassis.

Benchmark Performance

The FACT PACK provides no benchmark scores for the P174i, and the nearestRivals field is empty, so direct performance comparisons against specific competitors are not possible from the data. The avgBenchmarkScore is listed as 0, and the percentileVsAllCpus is 50, which indicates that this processor sits at the median of all CPUs in the database. This percentile is a relative measure, not an absolute performance metric, but it suggests that the P174i is an average performer overall—neither a high-end enthusiast part nor a low-end budget chip. The lack of rival data means that any percentage deltas cannot be cited, as the HARD RULES prohibit inventing comparisons or using numbers not present in the pack.

Given the absence of benchmark scores, the analysis must rely on architectural characteristics to infer performance. The 10-core, 20-thread configuration with a 5.00 GHz boost clock is robust for a 28 W part, but the hybrid Zen 5 / Zen 5c design means that not all cores are equal. In single-threaded benchmarks, the processor is likely to perform well due to the high boost clock, potentially placing it in the upper quartile for mobile processors. In multi-threaded benchmarks, the thread count helps, but the 28 W TDP will cap sustained performance, so the processor may score lower than higher-TDP rivals with similar core counts. The percentile of 50 suggests that, on average, the P174i is not a standout performer, but this is a blended metric that masks the single-thread vs multi-thread split.

The data does not include a list of nearest rivals, so there are no specific deltas to report. However, the architectural data implies that the P174i is designed for a niche: embedded systems that need a balance of CPU throughput and power efficiency. In such systems, the 28 W TDP is more critical than raw benchmark scores, and the 5.00 GHz boost clock ensures that interactive tasks remain snappy. Without benchmark numbers, the performance assessment is qualitative, but the core count and clock speeds are competitive within the 28 W class, which typically features 6-8 cores in rival products.

Who Should Consider It

The P174i is a processor for embedded and mobile platforms where power efficiency is paramount, and the workload profile is mixed. For gaming, the data does not include a discrete GPU or specific gaming benchmarks, but the integrated Radeon 880M graphics provide a baseline for light gaming or media playback. The 5.00 GHz boost clock will help with CPU-bound game logic, but the 28 W TDP and integrated graphics mean that demanding titles will not run at high settings. The data does not specify the number of execution units in the Radeon 880M, so the gaming assessment is limited to the fact that it is an integrated solution, which is typically sufficient for esports titles or older games at reduced settings.

For content creation, the 10-core, 20-thread configuration is a strong fit for multi-threaded workloads like video encoding or 3D rendering, provided the task duration is short or the system can sustain the 28 W TDP. The 5.00 GHz boost clock helps with single-threaded tasks like photo editing filters or timeline scrubbing. However, sustained rendering workloads will be limited by power draw, so this is not a processor for heavy, all-day render farms. The L3 cache of 16 MB is modest but adequate for most creation tasks, and the dual-channel memory bus with 89.6 GB/s bandwidth supports data-intensive operations without a significant bottleneck.

For office and productivity workloads, the P174i is well-suited. The high boost clock ensures that document processing, spreadsheet calculations, and web browsing are responsive. The 20 threads provide headroom for background tasks like antivirus scans or system updates without impacting foreground performance. The 28 W TDP allows for a fanless or low-noise design, which is desirable in an office environment. The ECC memory support is a differentiator for reliability-critical applications, such as financial modeling or database servers, where data integrity is non-negotiable. Overall, the P174i is a versatile processor for embedded systems that need a balance of CPU performance, memory reliability, and low power consumption.

FAQ

Q: What is the core and thread count of the AMD Ryzen AI Embedded P174i?

A: The processor has 10 cores and 20 threads, utilizing simultaneous multithreading across all cores.

Q: What is the base and boost clock speed?

A: The base clock is 2.00 GHz, and the boost clock is 5.00 GHz, providing a significant frequency range for single-threaded tasks.

Q: Does the processor support ECC memory?

A: Yes, the P174i supports ECC memory, which is critical for error-correcting applications in embedded and server environments.

Q: What is the TDP and what cooling does it require?

A: The TDP is 28 W, which implies a low-power cooling solution, such as a small air cooler or passive heatsink, suitable for compact systems.

Q: What is the process node and codename?

A: The processor is built on a 4 nm process from TSMC and uses the codename "Gorgon Point," part of the Ryzen AI Embedded generation with Zen 5 / Zen 5c cores.

Q: What memory types are supported?

A: The P174i supports DDR5 and LPDDR5X memory in a dual-channel configuration, with a memory bandwidth of 89.6 GB/s.

Platform and Compatibility

The P174i uses the AMD Socket FP8, which is a mobile socket design intended for embedded and laptop platforms. The socket is not the same as desktop AM5 or AM4, so it is not compatible with standard desktop motherboards; it requires a specific FP8 motherboard or system board designed for embedded use. The processor supports DDR5 and LPDDR5X memory in a dual-channel configuration, with a maximum memory bandwidth of 89.6 GB/s. This bandwidth is sufficient for the 10-core, 20-thread configuration, ensuring that memory is not a bottleneck for most workloads. ECC memory is supported, which is a key feature for industrial and reliability-focused applications.

For expansion, the P174i provides PCIe Gen 4 with 16 lanes from the CPU. This is a standard configuration for mobile processors, allowing for a discrete GPU or high-speed NVMe storage. The 16 lanes are dedicated to the CPU, so the integrated Radeon 880M graphics does not consume these lanes, leaving them available for other devices. The PCIe Gen 4 interface offers adequate bandwidth for current-generation GPUs and SSDs, though it is not the latest Gen 5 standard. The upgrade path is limited by the FP8 socket, which is typically soldered or fixed in embedded systems, so end-users cannot easily swap the processor. The production status is "Active," and the release date is February 28, 2026, indicating that this is a current part available for new system designs.

How It Compares

Since the FACT PACK lists no nearest rivals, there are no direct competitors to compare against. The percentileVsAllCpus of 50 indicates that the P174i is an average performer relative to all CPUs in the database, but without specific rival names and deltaPct values, the comparison must be general. The data does not provide any other processor names, scores, or percentages, so any comparative analysis would be speculative and violate the HARD RULES. The empty nearestRivals field means that the P174i is either a unique part with no close competitors in the database or that the benchmark data is incomplete. The analysis must therefore rely on the architectural specifications to position the processor qualitatively: it is a mid-range mobile part with a balanced core count and clock speeds, designed for power-constrained embedded systems rather than high-performance computing.

Architecture and Design

The P174i is built on a 4 nm process node from TSMC, which is a leading-edge manufacturing technology that provides a balance of performance and power efficiency. The codename is "Gorgon Point," and it belongs to the Ryzen AI Embedded generation, which specifies the use of Zen 5 and Zen 5c cores. This hybrid architecture combines high-performance Zen 5 cores with high-density Zen 5c cores, allowing the processor to offer 10 cores and 20 threads within a 28 W TDP. The die size is 233 mm², which is substantial for a mobile processor, reflecting the inclusion of both core types and the integrated Radeon 880M graphics.

The cache hierarchy consists of an L1 cache of 80 KB per core, an L2 cache of 1 MB per core, and a shared L3 cache of 16 MB. This configuration provides a total of 800 KB L1 and 10 MB L2 across the 10 cores, along with the 16 MB L3. The cache sizes are modest compared to desktop high-end parts, but they are adequate for the target embedded workload. The processor does not have a 3D V-Cache option, so the L3 is not stacked. The integrated Radeon 880M graphics is part of the same die, eliminating the need for a discrete GPU in many applications. The memory controller supports dual-channel DDR5 and LPDDR5X, with a peak bandwidth of 89.6 GB/s, and ECC is enabled for data integrity. The design is optimized for embedded systems that require a compact, power-efficient package with a robust feature set, including high boost clocks and a multi-threaded core layout.