AMD Ryzen AI Embedded P164i vs Intel Processor N250 Comparison

# FAQ

Q: What are the core and thread counts of the AMD Ryzen AI Embedded P164i and the Intel Processor N250?

A: The AMD Ryzen AI Embedded P164i has 8 cores and 16 threads, while the Intel Processor N250 has 4 cores and 4 threads.

Q: How do the boost clocks compare between the two processors?

A: The AMD Ryzen AI Embedded P164i boosts to 5.00 GHz, whereas the Intel Processor N250 boosts to 3.80 GHz.

Q: What process nodes are used by each chip?

A: The AMD Ryzen AI Embedded P164i is fabricated on a 4 nm process at TSMC, while the Intel Processor N250 is built on a 10 nm process at Intel.

Q: Which processor supports ECC memory?

A: The AMD Ryzen AI Embedded P164i supports ECC memory. The Intel Processor N250 does not support ECC memory.

Q: What is the memory bandwidth of each processor?

A: The AMD Ryzen AI Embedded P164i has a memory bandwidth of 89.6 GB/s, while the Intel Processor N250 has a memory bandwidth of 38.4 GB/s.

Q: What integrated graphics are included in each processor?

A: The AMD Ryzen AI Embedded P164i uses Radeon 880M graphics, while the Intel Processor N250 uses UHD Graphics 730.

# Architecture Differences

The AMD Ryzen AI Embedded P164i and the Intel Processor N250 represent two fundamentally different architectural approaches. The AMD part belongs to the Ryzen AI Embedded series, built on the Gorgon Point codename and utilizing a hybrid Zen 5 / Zen 5c core arrangement. This generation marks AMD's embedded lineup with a 4 nm process node manufactured by TSMC, which allows for a relatively compact die size of 233 mm². The chip integrates 8 cores with 16 threads, meaning each core can handle two threads simultaneously, a hallmark of simultaneous multithreading design. The architecture also features a per-core L1 cache of 80 KB and a per-core L2 cache of 1 MB, alongside an 8 MB L3 cache. The core topology is designed for high throughput in multi-threaded workloads, and the boost clock of 5.00 GHz indicates a strong single-thread capability when thermally and power conditions permit.

The Intel Processor N250, on the other hand, comes from the Twin Lake architecture, which is part of the Intel Processor generation derived from Alder Lake-N. This chip is manufactured on a 10 nm process at Intel's own foundry. It contains 4 cores and 4 threads, with no hyperthreading support, meaning each core executes exactly one thread. The cache hierarchy differs notably: the L1 cache is 96 KB per core, slightly larger than AMD's per-core L1, but the L2 cache is 2 MB shared across all cores, and the L3 cache is 6 MB shared. This shared cache design reflects a more budget-oriented, power-efficient approach. The base clock is listed as 0.10 GHz, which is unusually low and likely represents an idle or minimum frequency floor; the boost clock reaches 3.80 GHz. The architecture is optimized for low power consumption, as evidenced by the 6 W TDP, compared to the AMD part's 28 W TDP.

The memory controllers also diverge significantly. The AMD Ryzen AI Embedded P164i supports DDR5 and LPDDR5X memory in a dual-channel configuration, providing a memory bandwidth of 89.6 GB/s. The Intel Processor N250 supports DDR4, DDR5, and LPDDR5, but only in a single-channel configuration, yielding a memory bandwidth of 38.4 GB/s. This is a substantial difference in memory throughput and will affect any workload that is memory-bandwidth sensitive. Additionally, the AMD chip supports ECC memory, while the Intel chip does not, making the AMD part more suitable for error-sensitive embedded or server-like applications.

PCIe connectivity also differs. The AMD Ryzen AI Embedded P164i uses PCIe Gen 4 with 16 lanes (CPU only), while the Intel Processor N250 uses PCIe Gen 3 with 9 lanes (CPU only). The newer PCIe generation and more lanes on the AMD side provide higher potential I/O bandwidth for peripherals, NVMe storage, or accelerators. The integrated graphics differ as well: AMD uses Radeon 880M, which is part of its RDNA-based integrated GPU lineup, while Intel uses UHD Graphics 730, which is based on the Xe architecture but with fewer execution units. Both are integrated into the same package, but the Radeon 880M is expected to deliver higher graphics performance given its newer architecture and higher TDP budget.

In terms of physical packaging, the AMD processor uses AMD Socket FP8, while the Intel processor uses Intel BGA 1264. Both are mobile/embedded sockets, but they are not interchangeable. The release dates also differ: the AMD part was released in March 2026, while the Intel part was released in January 2025. Both processors are currently marked as Active in production status. The Intel part has a part number of SRPNS, while the AMD part has an unknown part number. Neither processor has an unlocked multiplier, meaning overclocking is not supported on either platform.

# Head-to-Head Benchmarks

The recorded data for this comparison does not include any benchmark scores or head-to-head benchmark entries. Both processors have an average benchmark score of 0, and both fall into the 50th percentile among all CPUs in the database. However, this does not mean they perform identically; rather, it indicates that no benchmark data has been collected or recorded for these specific processors in the database at this time. Without benchmark scores, a direct numerical comparison of performance is not possible from the available data. What can be compared are the architectural characteristics and specification differences, which provide a strong indication of relative performance potential.

In multi-threaded workloads, the AMD Ryzen AI Embedded P164i has a clear theoretical advantage. It offers double the core count (8 vs. 4) and four times the thread count (16 vs. 4). This means that in heavily parallel tasks, such as video encoding, scientific simulations, or server-side processing, the AMD part can handle significantly more concurrent work. The simultaneous multithreading on the AMD chip allows each physical core to process two threads, effectively maximizing utilization. The Intel Processor N250, with only 4 threads, will be limited to four concurrent threads regardless of workload. The difference in TDP (28 W vs. 6 W) also suggests that the AMD part is designed to sustain higher performance for longer durations, albeit at the cost of more power and heat.

In single-threaded workloads, the picture is less clear. The AMD part has a boost clock of 5.00 GHz, which is notably higher than the Intel part's 3.80 GHz. Higher boost clocks generally translate to better single-thread performance, assuming similar instructions-per-clock (IPC) efficiency. However, the Intel architecture, specifically the Alder Lake-N derived Twin Lake, uses efficient cores (E-cores) that may have lower IPC than AMD's Zen 5 cores. The Zen 5 architecture in the AMD part is a high-performance core design, whereas the Intel E-cores are optimized for power efficiency rather than raw performance. This suggests that the AMD part likely has a substantial single-thread advantage as well, but without benchmark numbers, this remains a projection based on architectural traits.

Memory bandwidth is another area where the AMD processor is expected to excel. The 89.6 GB/s bandwidth versus 38.4 GB/s is more than double. This is critical for workloads that stream large datasets, such as database operations, data analytics, or certain AI inference tasks. The dual-channel memory bus on the AMD side allows for higher throughput, while the Intel part's single-channel bus creates a bottleneck for memory-intensive operations. Additionally, the AMD part's support for LPDDR5X memory, which has higher bandwidth potential than standard DDR4, further widens the gap.

The integrated graphics comparison also favors the AMD part. The Radeon 880M is a modern integrated GPU based on AMD's RDNA architecture, which is designed to handle light gaming, video playback, and some compute tasks. The Intel UHD Graphics 730 is a lower-end integrated GPU with fewer execution units, designed primarily for basic display output and media playback. For embedded applications that require GPU compute or advanced graphics rendering, the AMD part would be the stronger choice.

The PCIe interface is another differentiator. The AMD part's PCIe Gen 4 with 16 lanes provides twice the bandwidth per lane compared to PCIe Gen 3, and more lanes overall. This is important for connecting high-speed NVMe SSDs, discrete GPUs, or custom accelerators in embedded systems. The Intel part's PCIe Gen 3 with 9 lanes is more limited, which could constrain I/O expansion in demanding applications.

# Specification Differences

The following specification differences are recorded between the AMD Ryzen AI Embedded P164i and the Intel Processor N250:

• Cores: 8 (AMD) vs. 4 (Intel)
• Threads: 16 (AMD) vs. 4 (Intel)
• Base clock: 2.00 GHz (AMD) vs. 0.10 GHz (Intel)
• Boost clock: 5.00 GHz (AMD) vs. 3.80 GHz (Intel)
• TDP: 28 W (AMD) vs. 6 W (Intel)
• Socket: AMD Socket FP8 (AMD) vs. Intel BGA 1264 (Intel)
• Codename: Gorgon Point (AMD) vs. Twin Lake (Intel)
• Generation: Ryzen AI Embedded (Zen 5 / Zen 5c) (AMD) vs. Intel Processor (Alder Lake-N) (Intel)
• Process node: 4 nm (AMD) vs. 10 nm (Intel)
• Foundry: TSMC (AMD) vs. Intel (Intel)
• Die size: 233 mm² (AMD) vs. not recorded (Intel)
• L1 cache: 80 KB per core (AMD) vs. 96 KB per core (Intel)
• L2 cache: 1 MB per core (AMD) vs. 2 MB shared (Intel)
• L3 cache: 8 MB (AMD) vs. 6 MB shared (Intel)
• Memory support: DDR5, LPDDR5X (AMD) vs. DDR4, DDR5, LPDDR5 (Intel)
• Memory bus: Dual-channel (AMD) vs. Single-channel (Intel)
• Memory bandwidth: 89.6 GB/s (AMD) vs. 38.4 GB/s (Intel)
• ECC memory: Supported (AMD) vs. Not supported (Intel)
• PCIe: Gen 4, 16 Lanes (CPU only) (AMD) vs. Gen 3, 9 Lanes (CPU only) (Intel)
• Integrated graphics: Radeon 880M (AMD) vs. UHD Graphics 730 (Intel)
• Release date: 2026-03-08 (AMD) vs. 2025-01-06 (Intel)
• Part number: Unknown (AMD) vs. SRPNS (Intel)

Both processors share the following traits: they are both mobile market segment parts, both are currently Active in production, both have no launch MSRP recorded, both have a locked multiplier, and both fall into the 50th percentile among all CPUs in the database.

# The Verdict

The data indicates that the AMD Ryzen AI Embedded P164i is positioned as a higher-performance, higher-power processor compared to the Intel Processor N250. The AMD part offers double the cores, four times the threads, a significantly higher boost clock, more than double the memory bandwidth, support for ECC memory, a newer PCIe generation with more lanes, and a more powerful integrated GPU. It is built on a smaller process node (4 nm vs. 10 nm), which typically improves transistor density and power efficiency at equivalent performance levels, though the TDP of 28 W is still substantially higher than the Intel part's 6 W.

The Intel Processor N250, by contrast, is clearly designed for ultra-low-power applications where energy consumption is the primary constraint. Its 6 W TDP is a fraction of the AMD part's 28 W, making it suitable for passively cooled or battery-operated embedded devices where sustained heavy computation is not required. The single-channel memory bus and limited PCIe lanes reflect this orientation toward lightweight tasks such as basic I/O control, simple data logging, or display output. The absence of ECC support may also be a deciding factor for certain reliability-critical deployments, where the AMD part would be mandatory.

For workloads that require high thread counts, substantial memory throughput, error-correcting memory, or modern PCIe connectivity, the AMD Ryzen AI Embedded P164i is the appropriate choice based on the recorded specifications. For applications that prioritize minimal power draw, low thermal output, and simplicity, the Intel Processor N250 fits that niche. The two processors are not direct competitors; they target different ends of the embedded computing spectrum. The choice between them should be dictated by the specific requirements of the deployment environment, with the AMD part delivering a broader performance envelope and the Intel part offering extreme power efficiency.