Intel Core 5 213PE vs Intel Core Ultra 9 386H Comparison

Intel Core 5 213PE vs Intel Core Ultra 9 386H

The Intel Core 5 213PE and Intel Core Ultra 9 386H occupy different ends of the performance spectrum, with the desktop part winning four benchmark comparisons and the mobile processor taking 13. The Core 5 213PE posts an average benchmark score of 35,428, placing it in the 85th percentile of all CPUs, while the Core Ultra 9 386H averages 43,210, good for the 88th percentile. The Core 5 213PE sits within 0.4% of the Intel Core i7-12700K, its closest rival at 35,287, while the Core Ultra 9 386H trails the AMD Ryzen AI Max PRO 385 by only 0.3% (43,326). These two processors serve distinct workloads, and the benchmark data separates them clearly.

Where Each One Wins

The Core Ultra 9 386H dominates in nearly every multi-threaded and throughput-oriented test. Its biggest margins come in prime number finding, where it scores 341 versus 114 for the Core 5 213PE, a 66.6% advantage. Physics calculations favor the mobile chip by 46.4%, with scores of 3,028 versus 1,624. Data encryption shows a 41.4% lead for the Core Ultra 9 386H (27,150 versus 15,916), and floating point math goes its way by 36.8% (108,527 versus 68,587). Extended instruction workloads also favor the Core Ultra 9 386H, which scores 29,138 against 19,565, a 32.9% gap. Data compression, multithread, and random string sorting all show the same pattern: the Core Ultra 9 386H wins by 15.2%, 25.3%, and 24% respectively. Even single-thread PassMark favors it, albeit narrowly, at 4,218 versus 4,060, a 3.7% edge.

The Core 5 213PE takes four wins, concentrated in specific workloads. In Cinebench R23 single-core, it beats the Core Ultra 9 386H by 53.1%, scoring 3,172 versus 2,071.5. Cinebench R23 multi-core also goes its way, 22,468 versus 20,547, a 9.3% advantage. Integer math favors the desktop chip by 5.5% (92,089 versus 87,284), and Cinebench R15 single-core gives it a narrow 5.1% win (319 versus 303.5). This split indicates the Core 5 213PE excels in legacy single-threaded rendering and integer-heavy tasks, while the Core Ultra 9 386H handles modern multi-threaded workloads with far more authority.

Architecture Differences

The two chips come from different Intel design families built for different physical formats. The Core 5 213PE uses the Bartlett Lake codename on a 10 nm process, while the Core Ultra 9 386H uses Panther Lake architecture on a 3 nm node. Both are fabricated by Intel, but the process gap is substantial: 10 nm versus 3 nm. The Core 5 213PE fits Intel Socket 1700 and targets the desktop market, whereas the Core Ultra 9 386H uses Intel BGA 2540 and is built for mobile systems. The Core Ultra 9 386H belongs to the Core Ultra Series 3 generation, while the Core 5 213PE carries the Core 5 (Bartlett Lake) generation label.

Core counts differ significantly. The Core 5 213PE has 8 cores and 16 threads, while the Core Ultra 9 386H has 16 cores and 16 threads. That means the mobile part doubles the physical core count but maintains the same thread count, indicating it relies on more cores without hyper-threading for its multi-threaded advantage. Cache layouts also diverge. The Core 5 213PE provides 80 KB of L1 per core, 2 MB of L2 per core, and 24 MB of shared L3. The Core Ultra 9 386H offers 192 KB of L1 per core, 2.5 MB of L2 per core, but only 18 MB of shared L3. The desktop chip has more last-level cache overall, yet the mobile chip’s larger per-core L1 and L2 caches help feed its extra cores.

Memory support separates them further. The Core 5 213PE supports DDR4 and DDR5, while the Core Ultra 9 386H supports DDR5 and LPDDR5X. Both use dual-channel memory buses, but the Core Ultra 9 386H achieves a memory bandwidth of 115.2 GB/s versus 76.8 GB/s for the Core 5 213PE. ECC memory is available on the desktop chip but not on the mobile part. PCIe lanes also differ: the Core 5 213PE provides Gen 5 with 16 lanes from the CPU, while the Core Ultra 9 386H provides Gen 5 with 12 lanes. Integrated graphics differ as well, with the Core 5 213PE using UHD Graphics 730 and the Core Ultra 9 386H using Intel Xe3 Graphics. Clock speeds show the desktop chip’s advantage in burst performance: base clock of 2.70 GHz versus 2.10 GHz, boost clock of 5.20 GHz versus 4.90 GHz. The Core 5 213PE carries a TDP of 65 watts, while the Core Ultra 9 386H is rated at 25 watts, reflecting its mobile orientation.

Head-to-Head Benchmarks

The largest single benchmark gap belongs to the Core Ultra 9 386H in prime number finding. Its score of 341 beats the Core 5 213PE’s 114 by 66.6%, the widest margin in the entire comparison. This test stresses integer throughput and core scaling, where the mobile chip’s 16 physical cores excel. Physics performance shows a similar story: 3,028 versus 1,624, a 46.4% lead. Data encryption also heavily favors the Core Ultra 9 386H at 27,150 versus 15,916, a 41.4% margin, indicating stronger cryptographic instruction handling.

The Core Ultra 9 386H continues its run in floating point math, scoring 108,527 against 68,587, a 36.8% advantage. Extended instructions follow at 29,138 versus 19,565, a 32.9% gap. Cinebench R15 multi-core gives the mobile chip a 29.8% win (3,223 versus 2,264), and Cinebench R20 multi-core shows a 26.4% lead (12,820 versus 9,436). PassMark multithread lands at 35,399 versus 26,434, a 25.3% advantage. Random string sorting goes 42,135 versus 32,027, a 24% margin, and data compression favors the Core Ultra 9 386H by 15.2% (352,365 versus 298,804). Single-thread PassMark is close but still favors the mobile chip, 4,218 versus 4,060, a 3.7% edge.

The Core 5 213PE answers in specific tests. Cinebench R23 single-core shows its clearest strength: 3,172 versus 2,071.5, a 53.1% advantage. That is the largest win for the desktop chip and the second-largest margin in the entire head-to-head. Cinebench R23 multi-core also goes its way, 22,468 versus 20,547, a 9.3% lead, which is notable because it wins despite having half the physical cores. Integer math favors the Core 5 213PE by 5.5% (92,089 versus 87,284), and Cinebench R15 single-core gives it a 5.1% win (319 versus 303.5). These results suggest the Core 5 213PE’s higher boost clock and larger L3 cache help in lightly threaded and integer-bound scenarios.

FAQ

Q: Which processor has the higher average benchmark score?

A: The Intel Core Ultra 9 386H averages 43,210, compared to 35,428 for the Intel Core 5 213PE. The Core Ultra 9 386H also ranks in the 88th percentile of all CPUs, while the Core 5 213PE sits in the 85th percentile.

Q: How do the core counts compare?

A: The Core 5 213PE has 8 cores and 16 threads. The Core Ultra 9 386H has 16 cores and 16 threads. The mobile chip has twice the physical cores but the same thread count, so it does not use simultaneous multithreading.

Q: Which processor wins in Cinebench R23 multi-core?

A: The Core 5 213PE wins with a score of 22,468 against 20,547 for the Core Ultra 9 386H, a 9.3% advantage. This is one of the four benchmark wins for the desktop part.

Q: What is the largest performance gap between the two?

A: The largest gap is in PassMark find prime numbers, where the Core Ultra 9 386H scores 341 versus 114 for the Core 5 213PE, a 66.6% difference. The second-largest gap is in Cinebench R23 single-core, where the Core 5 213PE leads by 53.1%.

Q: Do these processors support the same memory types?

A: No. The Core 5 213PE supports DDR4 and DDR5, while the Core Ultra 9 386H supports DDR5 and LPDDR5X. The Core Ultra 9 386H also achieves 115.2 GB/s memory bandwidth versus 76.8 GB/s for the Core 5 213PE, and it does not support ECC memory.

Q: How do the process nodes differ?

A: The Core 5 213PE uses a 10 nm process, while the Core Ultra 9 386H uses a 3 nm process. Both are manufactured by Intel, but the smaller node gives the mobile chip a significant manufacturing advantage.

Specification Differences

The Core 5 213PE and Core Ultra 9 386H differ across nearly every specification field. Core count: 8 versus 16. Threads: 16 versus 16, identical. Base clock: 2.70 GHz versus 2.10 GHz. Boost clock: 5.20 GHz versus 4.90 GHz. TDP: 65 watts versus 25 watts. Socket: Intel Socket 1700 versus Intel BGA 2540. Codename: Bartlett Lake versus Panther Lake. Process node: 10 nm versus 3 nm. L1 cache: 80 KB per core versus 192 KB per core. L2 cache: 2 MB per core versus 2.5 MB per core. L3 cache: 24 MB shared versus 18 MB shared. Memory support: DDR4 and DDR5 versus DDR5 and LPDDR5X. Memory bandwidth: 76.8 GB/s versus 115.2 GB/s. ECC support: yes versus no. PCIe lanes: Gen 5, 16 lanes versus Gen 5, 12 lanes. Integrated graphics: UHD Graphics 730 versus Intel Xe3 Graphics. Market segment: Desktop versus Mobile. Release date: 2026-03-08 versus 2026-01-04. The Core 5 213PE has a launch MSRP of $221, while the Core Ultra 9 386H has no recorded launch MSRP. Both are active production parts with locked multipliers.

The Verdict

The benchmark data points to a clear division of labor. The Core Ultra 9 386H is the stronger overall processor, winning 13 of 17 comparisons and holding a 22% higher average benchmark score (43,210 versus 35,428). Its 16 physical cores deliver decisive wins in prime number finding, physics, encryption, floating point math, data compression, and multithread workloads. For anyone running heavily parallel tasks, the Core Ultra 9 386H is the obvious choice from this data. It also does so at a 25 watt TDP, which is notable for a mobile part delivering this level of throughput.

The Core 5 213PE, despite losing the overall count, wins in areas that matter for certain workloads. Its 53.1% lead in Cinebench R23 single-core is substantial, and its 9.3% win in Cinebench R23 multi-core shows that its 8 cores with 16 threads and 24 MB of L3 cache can outperform a chip with twice the physical cores in that specific rendering test. Integer math also goes its way by 5.5%. The Core 5 213PE fits a desktop socket with 65 watt TDP, supports ECC memory, and uses DDR4 or DDR5, making it a practical choice for systems that need legacy memory compatibility, ECC reliability, or maximum single-thread performance. The Core Ultra 9 386H, with LPDDR5X support, 115.2 GB/s bandwidth, and 3 nm process, targets mobile systems that need maximum multi-threaded throughput per watt. The recorded data shows no ambiguity: pick the Core Ultra 9 386H for parallel compute density, pick the Core 5 213PE for single-threaded strength and desktop flexibility.