Intel Core 5 213PTE vs Intel Core Ultra 7 356H Comparison

Where Each One Wins

The benchmark data splits these two Intel parts into clearly different performance profiles. The Intel Core 5 213PTE claims victory in 4 of the 17 recorded head-to-head tests, while the Intel Core Ultra 7 356H wins 13. The winning categories reveal the fundamental character of each processor.

The Core 5 213PTE dominates in Cinebench R23, both single-core and multi-core. Its R23 single-core score of 3070 beats the Ultra 7 356H's 2040 by 50.5%, the largest margin recorded in either direction. The R23 multi-core result also favors the Core 5, scoring 21751 against 18395 for the Ultra 7, a lead of 18.2%. The Core 5 additionally wins PassMark integer math with 93109 versus 83111, a 12% advantage. These wins point to a processor that excels in workloads sensitive to high clock speeds and integer throughput.

The Ultra 7 356H wins across the broader sweep of tests. Its most dramatic margins come in PassMark find prime numbers, where it scores 327 against 157, a 52% advantage. Data encryption shows 26345 versus 14413, a 45.3% lead. Extended instructions favor the Ultra 7 by 42.1% with 27898 against 16146. Floating point math goes to the Ultra 7 at 103128 versus 71722, a 30.5% margin. The Ultra 7 also leads in Cinebench R15 multi-core by 28.2% (3055 versus 2192), R20 multi-core by 24.8% (12153 versus 9135), and R20 single-core by 24.8% (1715 versus 1289). PassMark multithread favors the Ultra 7 by 24.7% (33978 versus 25590), with physics scoring 2895 against 2199, a 24% lead. Data compression shows 336177 versus 261083, a 22.3% edge, and random string sorting favors the Ultra 7 by 26.6% (40990 versus 30106). PassMark single-thread tests give the Ultra 7 a smaller but consistent 8.7% advantage with 4072 versus 3718.

The pattern is clear. The Core 5 213PTE wins where its high boost clock of 5.20 GHz can express itself, particularly in the R23 workload and integer math. The Ultra 7 356H wins in nearly everything else, especially encryption, compression, extended instructions, and prime number calculations, where its 16 cores and larger per-core L1 and L2 caches provide substantial throughput advantages.

The Verdict

The recorded data supports a straightforward selection rule. The Intel Core Ultra 7 356H is the better all-around processor for most workloads. Its average benchmark score of 41215 places it in the 87th percentile of all CPUs in the database, against the Core 5 213PTE's average of 32924 and 83rd percentile. The Ultra 7 outperforms its nearest rival, AMD Ryzen AI 5 PRO 440, by 0% in average score, and sits within 0.6% of the Intel Core Ultra X7 358H. The Core 5 213PTE's nearest rival, Intel Core i7-12700, is only 0.1% ahead in average score, while AMD Ryzen 7 PRO 6850H trails the Core 5 by 0.3%.

The Ultra 7 356H should be chosen for encryption-heavy work, data compression, scientific floating point, prime number searches, and general multi-threaded productivity. Its 45.3% encryption lead and 52% prime number lead are decisive. The 25 watt TDP, versus 45 watts for the Core 5, also indicates a more power-efficient design for sustained mobile workloads.

The Core 5 213PTE deserves consideration specifically for Cinebench R23-style rendering and integer math problems. Its 50.5% single-core lead in R23 is exceptional, and the 18.2% multi-core lead in that same test shows it can handle heavily threaded rendering work. The 12% integer math advantage reinforces this profile. Users running applications that scale with the Core 5's 5.20 GHz boost clock will see meaningful gains.

The production status of both parts is Active, so neither is a legacy purchase. The Core 5 uses the desktop Intel Socket 1700 platform with DDR4 and DDR5 memory support and ECC memory capability, while the Ultra 7 uses the mobile Intel BGA 2540 socket with DDR5 and LPDDR5X memory and no ECC support. Platform choice therefore matters: the Core 5 is a desktop part, the Ultra 7 is a mobile part.

Head-to-Head Benchmarks

The largest single margin in the entire comparison belongs to the Core 5 213PTE in Cinebench R23 single-core. Its 3070 score beats the Ultra 7's 2040 by 50.5%. This is unusual because the Ultra 7 wins the R20 single-core test by 24.8% (1715 versus 1289) and the PassMark single-thread test by 8.7% (4072 versus 3718). The R23 result contradicts the R20 result, indicating that the Core 5's architecture responds particularly well to the R23 workload's specific instruction mix. The Core 5 also wins R23 multi-core by 18.2%, scoring 21751 against 18395, despite losing R15 multi-core by 28.2% and R20 multi-core by 24.8%. The R23 workload clearly favors the Core 5's high boost behavior.

The Ultra 7 356H's largest wins are in PassMark find prime numbers (52% ahead, 327 versus 157), data encryption (45.3% ahead, 26345 versus 14413), and extended instructions (42.1% ahead, 27898 versus 16146). These are substantial margins, not marginal differences. The encryption result is particularly telling: the Ultra 7 processes over 26 thousand points while the Core 5 manages just over 14 thousand, indicating hardware-level advantages in cryptographic workloads. Floating point math shows the Ultra 7 at 103128 versus 71722, a 30.5% margin that reflects its 16 cores and 2.5 MB per-core L2 cache.

In Cinebench R15 and R20, the Ultra 7 wins multi-core by 28.2% and 24.8% respectively. The R15 result (3055 versus 2192) and R20 result (12153 versus 9135) both show the Ultra 7's core count advantage. PassMark multithread confirms this with 33978 versus 25590, a 24.7% lead. Physics follows at 2895 versus 2199, a 24% edge. Random string sorting goes to the Ultra 7 by 26.6% (40990 versus 30106), and data compression by 22.3% (336177 versus 261083). The only Core 5 wins outside of R23 and integer math are the R15 single-core test, where it scores 309 against 303, a 2% margin.

The pattern across these tests suggests the Ultra 7 delivers more consistent throughput across a wider range of operations, while the Core 5 excels in specific workloads that reward its clock speed. The average benchmark scores reinforce this: Ultra 7 at 41215, Core 5 at 32924.

FAQ

Q: Which processor has the higher average benchmark score?

A: The Intel Core Ultra 7 356H has an average benchmark score of 41215, compared to 32924 for the Intel Core 5 213PTE. The Ultra 7 sits in the 87th percentile of all CPUs, while the Core 5 is in the 83rd percentile.

Q: Why does the Core 5 213PTE win Cinebench R23 multi-core but lose R15 and R20 multi-core?

A: The Core 5 scores 21751 in R23 multi-core versus 18395 for the Ultra 7, an 18.2% lead. However, the Ultra 7 wins R15 multi-core by 28.2% (3055 versus 2192) and R20 multi-core by 24.8% (12153 versus 9135). The R23 workload appears to respond more favorably to the Core 5's 5.20 GHz boost clock, while R15 and R20 favor the Ultra 7's 16-core design.

Q: How large is the single-core performance gap in Cinebench R23?

A: The Core 5 213PTE scores 3070 in R23 single-core, which is 50.5% higher than the Ultra 7's 2040. This is the largest margin in any recorded test between these two processors.

Q: Which processor is better for encryption workloads?

A: The Ultra 7 356H is decisively better. It scores 26345 in PassMark data encryption versus 14413 for the Core 5, a 45.3% advantage.

Q: What are the core and thread counts for each processor?

A: The Core 5 213PTE has 8 cores and 16 threads. The Ultra 7 356H has 16 cores and 16 threads, meaning it has no hyperthreading but double the physical core count.

Q: Do these processors support ECC memory?

A: The Core 5 213PTE supports ECC memory and uses DDR4 or DDR5. The Ultra 7 356H does not support ECC memory and uses DDR5 or LPDDR5X.

Architecture Differences

The two processors represent fundamentally different Intel designs. The Core 5 213PTE is a desktop part from the Bartlett Lake generation, built on a 10 nm process node. The Ultra 7 356H is a mobile processor from the Panther Lake architecture, built on a 3 nm process node. The process difference is significant: 10 nm versus 3 nm, which contributes to the Ultra 7's lower 25 watt TDP compared to the Core 5's 45 watts.

Core counts differ substantially. The Core 5 has 8 cores and 16 threads, while the Ultra 7 has 16 cores and 16 threads. The Ultra 7 therefore relies on physical cores rather than simultaneous multithreading, while the Core 5 uses hyperthreading to reach its thread count. The Core 5's boost clock reaches 5.20 GHz, notably higher than the Ultra 7's 4.70 GHz. Base clocks are closer: 2.10 GHz for the Core 5 versus 1.90 GHz for the Ultra 7.

Cache hierarchies differ in both size and distribution. The Core 5 uses 80 KB of L1 cache per core and 2 MB of L2 per core, with 24 MB of shared L3. The Ultra 7 uses 192 KB of L1 per core and 2.5 MB of L2 per core, but only 18 MB of shared L3. The Ultra 7's larger per-core L1 and L2 caches likely contribute to its wins in encryption, compression, and extended instructions, while the Core 5's larger L3 pool helps in workloads that benefit from shared cache.

Memory support diverges by platform. The Core 5 supports DDR4 and DDR5 memory with dual-channel configuration and 76.8 GB/s bandwidth. The Ultra 7 supports DDR5 and LPDDR5X with dual-channel configuration and 115.2 GB/s bandwidth. The Ultra 7's higher memory bandwidth of 115.2 GB/s versus 76.8 GB/s gives it a measurable advantage in memory-intensive workloads. ECC memory is supported only on the Core 5.

PCIe lanes also differ. The Core 5 provides Gen 5 with 16 lanes (CPU only), while the Ultra 7 provides Gen 5 with 12 lanes (CPU only). Integrated graphics differ as well: the Core 5 uses UHD Graphics 730, while the Ultra 7 uses Intel Xe3 Graphics. The sockets are incompatible: Intel Socket 1700 for the Core 5, Intel BGA 2540 for the Ultra 7.

The Ultra 7's nearest rivals include AMD Ryzen 9 5900X at 0.4% higher average score, Intel Core Ultra 7 366H at 0.1% higher, and AMD Ryzen AI 5 PRO 440 at equal score. The Core 5's nearest rivals include Intel Core i7-12700 at 0.1% higher, AMD Ryzen 7 7800X3D at 0.5% higher, and AMD Ryzen 7 8700G at 0.5% higher. Both processors compete closely with their immediate neighbors in the database.