AMD Ryzen Embedded 9700X vs Intel Processor 300 Comparison

The Verdict

The benchmark database shows no recorded head-to-head measurements for the AMD Ryzen Embedded 9700X versus the Intel Processor 300, and neither processor has an average benchmark score above zero. The percentile ranking for both is identical at 50, meaning the database places neither part above or below the median of all tracked CPUs. Without scored workloads, the verdict rests on architectural and specification differences rather than measured performance deltas.

The AMD Ryzen Embedded 9700X is the clear choice for workloads that scale with core count and memory bandwidth. Its 8 cores and 16 threads double the Intel Processor 300's 2 cores and 4 threads, and its 32 MB of shared L3 cache is more than five times the Intel part's 6 MB. The AMD chip also supports ECC memory, runs on the newer AMD Socket AM5, and carries a 65 W TDP, which is higher than the Intel part's 46 W but still within a modest power envelope for a desktop processor.

The Intel Processor 300 suits basic desktop tasks where two physical cores suffice and where the 3.90 GHz base clock, the only clock figure listed for this part, provides adequate single-thread responsiveness. Its lower 46 W TDP, support for both DDR4 and DDR5 memory, and the $82 launch MSRP (the only listed price in the database) position it as a simpler, lower-power option. However, the absence of a boost clock, ECC memory support, and an unlocked multiplier limits its flexibility.

The AMD part offers an unlocked multiplier, meaning the recorded data indicates user-controlled overclocking is possible. The Intel part is locked in this regard. For anyone building a system that needs eight physical cores, high memory bandwidth, ECC support, or overclocking headroom, the database points to the AMD Ryzen Embedded 9700X. For a minimal, low-power dual-core desktop with legacy memory compatibility, the Intel Processor 300 is the only part with those traits.

Architecture Differences

The AMD Ryzen Embedded 9700X belongs to the 9000 series and uses the Granite Ridge codename, built on the Zen 5 microarchitecture. The database lists its generation as "Ryzen Embedded (Zen 5 (Granite Ridge))" and its process node as 4 nm, fabricated by TSMC. The transistor count is recorded as 8,315 million, and the die size is 70.6 mm².

The Intel Processor 300 uses the Raptor Lake architecture with the Raptor Lake-S codename. Its generation is listed as "Intel Processor (Raptor Lake)". The process node is 10 nm, fabricated by Intel, and the die size is 163 mm². No transistor count is recorded for the Intel part.

The process node difference is substantial: 4 nm for AMD versus 10 nm for Intel. The AMD die is smaller at 70.6 mm², while the Intel die is larger at 163 mm² despite having fewer cores. The AMD chip integrates Radeon Graphics, while the Intel part integrates UHD Graphics 710.

Memory support differs. The AMD Ryzen Embedded 9700X supports DDR5 only, with dual-channel memory and a recorded bandwidth of 89.6 GB/s. The Intel Processor 300 supports both DDR4 and DDR5, also dual-channel, but no memory bandwidth figure is recorded for it. ECC memory is supported on the AMD part but not on the Intel part.

PCIe lane counts also differ. The AMD processor provides Gen 5 with 24 lanes (CPU only), while the Intel processor provides Gen 5 with 16 lanes (CPU only). Both are active production parts, but the AMD release date is listed as 2025-10-06, while the Intel release date is 2024-01-07.

FAQ

Q: Which processor has more cores and threads?

A: The AMD Ryzen Embedded 9700X has 8 cores and 16 threads. The Intel Processor 300 has 2 cores and 4 threads.

Q: Does either processor support ECC memory?

A: Yes, the AMD Ryzen Embedded 9700X supports ECC memory. The Intel Processor 300 does not support ECC memory.

Q: What memory types does each processor support?

A: The AMD Ryzen Embedded 9700X supports DDR5 only. The Intel Processor 300 supports both DDR4 and DDR5.

Q: What is the TDP of each processor?

A: The AMD Ryzen Embedded 9700X has a TDP of 65 W. The Intel Processor 300 has a TDP of 46 W.

Q: Is the multiplier unlocked on either processor?

A: The AMD Ryzen Embedded 9700X has an unlocked multiplier. The Intel Processor 300 does not have an unlocked multiplier.

Q: What is the launch MSRP of the Intel Processor 300?

A: The launch MSRP of the Intel Processor 300 is $82. No launch MSRP is recorded for the AMD Ryzen Embedded 9700X.

Specification Differences

The following fields differ between the AMD Ryzen Embedded 9700X and the Intel Processor 300:

• Cores: 8 (AMD) versus 2 (Intel)
• Threads: 16 (AMD) versus 4 (Intel)
• Base clock: 3.80 GHz (AMD) versus 3.90 GHz (Intel)
• Boost clock: 5.50 GHz (AMD) versus none recorded (Intel)
• TDP: 65 W (AMD) versus 46 W (Intel)
• Socket: AMD Socket AM5 (AMD) versus Intel Socket 1700 (Intel)
• Architecture: Granite Ridge / Zen 5 (AMD) versus Raptor Lake / Raptor Lake-S (Intel)
• Process node: 4 nm (AMD) versus 10 nm (Intel)
• Foundry: TSMC (AMD) versus Intel (Intel)
• Transistors: 8,315 million (AMD) versus none recorded (Intel)
• Die size: 70.6 mm² (AMD) versus 163 mm² (Intel)
• L2 cache: 1 MB per core (AMD) versus 1.25 MB per core (Intel)
• L3 cache: 32 MB shared (AMD) versus 6 MB shared (Intel)
• Memory support: DDR5 only (AMD) versus DDR4 and DDR5 (Intel)
• Memory bandwidth: 89.6 GB/s (AMD) versus none recorded (Intel)
• ECC memory: true (AMD) versus false (Intel)
• PCIe lanes: Gen 5, 24 lanes (AMD) versus Gen 5, 16 lanes (Intel)
• Integrated graphics: Radeon Graphics (AMD) versus UHD Graphics 710 (Intel)
• Release date: 2025-10-06 (AMD) versus 2024-01-07 (Intel)
• Launch MSRP: none recorded (AMD) versus $82 (Intel)
• Multiplier unlocked: true (AMD) versus false (Intel)
• Part number: 100-000001404E (AMD) versus SRN3J (Intel)

Fields that are identical or not recorded for either part include L1 cache (80 KB per core for both), memory bus (dual-channel for both), market segment (desktop for both), production status (active for both), and percentile vs all CPUs (50 for both).

Head-to-Head Benchmarks

The database contains no recorded head-to-head benchmark results for this pairing. Both the winsA and winsB values are zero, and the headToHeadBenchmarks array is empty. Neither processor has an average benchmark score listed, and both sit at the same 50th percentile among all tracked CPUs.

Because no measured scores exist, the comparison must rely on the specification deltas. The most significant difference is core count: the AMD part offers 8 cores versus 2 on the Intel part, and 16 threads versus 4. That is a 4x difference in both cores and threads, which in multi-threaded workloads typically translates to large performance advantages, though no percentage figures are recorded in the database to quantify it.

The L3 cache difference is also large. The AMD Ryzen Embedded 9700X has 32 MB of shared L3 cache, while the Intel Processor 300 has 6 MB. That is a roughly 5.3x difference in favor of the AMD part. L2 cache per core is slightly higher on the Intel part at 1.25 MB per core versus 1 MB per core, but with only 2 cores, the total L2 is 2.5 MB on Intel versus 8 MB on AMD.

Memory bandwidth shows a clear gap: 89.6 GB/s for the AMD part, with no figure recorded for the Intel part. The AMD processor also has more PCIe lanes (24 versus 16). The base clock is higher on the Intel part at 3.90 GHz versus 3.80 GHz on the AMD part, but the AMD part has a boost clock of 5.50 GHz, while no boost clock is recorded for the Intel processor.

The absence of benchmark data means no win margins can be cited. The database indicates that the AMD part is likely to dominate in multi-core and memory-intensive scenarios based on core count, cache size, and bandwidth, while the Intel part may hold an edge in low-power or single-thread scenarios due to its higher base clock and lower TDP, though no measured evidence supports either claim.

Where Each One Wins

Based strictly on the recorded data, the AMD Ryzen Embedded 9700X wins in every category where a specification directly affects compute throughput. Its 8 cores and 16 threads make it the only option for parallel workloads. Its 32 MB L3 cache provides substantially more on-die storage for frequently accessed data. Its memory bandwidth of 89.6 GB/s, the only bandwidth figure recorded in this comparison, gives it a clear advantage in memory-bound tasks. ECC memory support makes it suitable for error-sensitive environments such as data processing or long-running server-like workloads. The unlocked multiplier allows manual overclocking, which the Intel part cannot offer. The AMD part also provides more PCIe lanes (24 versus 16), which supports more expansion devices or storage drives.

The Intel Processor 300 wins in areas related to simplicity and power draw. Its TDP is 46 W, which is lower than the AMD part's 65 W. Its base clock of 3.90 GHz is higher than the AMD part's 3.80 GHz, which may benefit lightly threaded tasks that rely on base frequency alone. Its support for both DDR4 and DDR5 memory gives it broader compatibility with existing memory modules, whereas the AMD part requires DDR5. The Intel part also carries a launch MSRP of $82, while no launch price is recorded for the AMD part. The Intel part's smaller core count and lower TDP suggest it is aimed at basic desktop use, but the database does not provide measured scores to confirm any performance advantage in that segment.

The production status for both is active, so neither is discontinued. The release dates show the AMD part launched later (2025-10-06) than the Intel part (2024-01-07), which may reflect a more recent design. The Intel part's larger die size of 163 mm² versus 70.6 mm² for AMD, despite having fewer cores, indicates a less dense implementation on the 10 nm node compared to AMD's 4 nm node.

In summary, the AMD Ryzen Embedded 9700X is the part to choose when core count, cache size, memory bandwidth, ECC support, PCIe lane count, or overclocking matter. The Intel Processor 300 is the part to choose when lower TDP, higher base clock, dual memory type support, or a recorded launch price are the deciding factors. With no benchmark scores in the database, these conclusions come from specifications alone, not measured performance.