CPU Comparison

Both the Intel Core 7 360 and the Intel Core 5 330 are 6-core, 6-thread mobile processors built on the same 3 nm Wildcat Lake architecture, yet benchmark results show a clear performance hierarchy. The Core 7 360 wins 14 of the 17 head-to-head benchmarks, establishing it as the faster part, but the Core 5 330 is not without its own strengths, taking three specific workload categories. The data shows a processor that trades effective single-thread lead for slight wins in memory and instruction-heavy tasks.

Head-to-Head Benchmarks

The most decisive advantage for the Intel Core 7 360 comes in single-thread performance. In the PassMark single-thread test, it scores 4274 against the Core 5 330’s 4088, a 4.5% delta that is the largest margin in any benchmark. This lead is consistent across Cinebench iterations: the R15 single-core result is 193 versus 186 (3.8% ahead), and both R20 and R23 single-core scores show a 3.7% advantage (808 vs 779, and 1924 vs 1856 respectively). For applications that rely on a single fast core, the Core 7 360 is the unambiguous choice.

Multi-threaded performance follows the same pattern, though with slightly smaller margins. The Cinebench R23 multicore score is 13634 for the Core 7 360 versus 13150 for the Core 5 330, a 3.7% difference. The R20 multicore score is 5726 versus 5523, also a 3.7% delta, and R15 multicore comes in at 1374 versus 1325, a 3.7% difference. The PassMark multithread test narrows this gap considerably: 15544 versus 15471, a mere 0.5% delta. This suggests that while the Core 7 360 is faster, the Core 5 330 scales reasonably well in sustained multi-threaded workloads, closing the gap that single-thread tests expose.

The Core 5 330’s wins are in three specific PassMark tests. Its most significant victory is in extended instructions, where it scores 12808 versus 12390, a 3.3% delta. It also wins in data compression (145287 vs 142877, a 1.7% delta) and random string sorting (17771 vs 17636, a 0.8% delta). These are not marginal flukes; they represent a pattern where the Core 5 330 handles certain data manipulation tasks more efficiently. In floating-point math, the Core 7 360 still leads with 44963 versus 43885 (2.5% delta), and in integer math it wins 34238 versus 33258 (2.9% delta). The Core 7 360 also dominates prime number finding (120 vs 114, a 5.3% delta) and data encryption (11164 vs 11076, a 0.8% delta).

The overall average benchmark scores are nearly identical: 18374 for the Core 7 360 and 18345 for the Core 5 330, a 0.2% delta. Both sit in the 72nd percentile of all CPUs. In the nearest rivals list, the Core 7 360 is effectively tied with the Intel Core i3-13100 (deltaPct 0) and slightly ahead of the Core i3-14100 (0.3%) and Core 3 305 (0.4%). The Core 5 330 is similarly positioned, essentially tied with the Core i3-14100 (0.1%) and slightly behind the Core 7 360 and Core i3-13100 (both -0.2%). This places the two processors in the same competitive bracket, but the Core 7 360 has the edge in most measurable tasks.

Architecture Differences

Both processors share the same fundamental architecture: a 3 nm process node, the Wildcat Lake codename, and an Intel BGA 1516 socket. They are both 6-core, 6-thread parts with a base clock of 1.50 GHz and a TDP of 15 watts. The L3 cache is identical at 6 MB shared, and the L2 cache is the same at 2.5 MB per core. The L1 cache is also listed as 192 KB per core for the Core 7 360 and 192 KB for the Core 5 330.

The primary architectural difference is the boost clock. The Core 7 360 boosts up to 4.80 GHz, while the Core 5 330 reaches 4.60 GHz. This 200 MHz advantage is the most likely driver behind the Core 7 360’s consistent 3.7-4.5% wins in single-thread and multithread Cinebench tests. It also explains the 4.5% lead in PassMark single-thread scoring. The higher boost clock allows the Core 7 360 to complete more work per unit time in bursty, single-threaded scenarios.

There are no other differences in the listed specifications. Both support DDR5 and LPDDR5X memory via a single-channel bus with 59.7 GB/s bandwidth. Both use the same integrated graphics: Intel Xe3 Graphics with 2 Xe cores. Both support PCIe Gen 4 with 6 CPU lanes. Neither has ECC memory support, and both are locked multipliers. The production status is Active for both, with the same release date of 2026-04-15. The part numbers differ (SAE3E for the Core 7 360, SAE3G for the Core 5 330), but this is a designation difference, not a functional one.

The data does not show any difference in core architecture, cache hierarchy, or memory controller configuration beyond the clock speed. This makes the boost clock the single distinguishing factor between the two chips. The Core 5 330’s wins in extended instructions, data compression, and random string sorting cannot be explained by the listed specifications alone, but they may reflect subtle binning or firmware-level differences that are not captured in the specification fields.

The Verdict

The benchmark data is unambiguous: the Intel Core 7 360 is the faster processor in the majority of tests. It wins all six Cinebench benchmarks, and it wins 11 of the 17 total comparisons. The margins are consistent, ranging from 0.5% in PassMark multithread to 5.3% in prime number finding. For users who prioritize raw compute performance, especially in rendering (Cinebench) or single-thread-heavy applications, the Core 7 360 is the correct choice.

However, the Core 5 330 should not be dismissed. Its wins in extended instructions (3.3% ahead), data compression (1.7% ahead), and random string sorting (0.8% ahead) suggest it handles certain data-processing workloads more efficiently. If your primary workload involves compression algorithms, string manipulation, or specialized instruction sets, the Core 5 330 may offer better real-world performance in those specific tasks. The overall average scores are within 0.2% of each other, indicating that neither chip has a dominant overall lead.

The choice comes down to workload. For general compute, content creation, and any task that benefits from higher clock speeds, the Core 7 360 is the clear winner. For niche data-processing tasks where the Core 5 330’s strengths lie, it is the better pick. The 5.3% delta in prime number finding is the largest single margin in either direction, and it favors the Core 7 360, but this is a narrow workload. The 3.3% delta in extended instructions favoring the Core 5 330 is more broadly relevant for applications that use SIMD or vectorized code.

Specification Differences

The only specification fields where the two processors differ are the boost clock and the part number. The Core 7 360 has a boost clock of 4.80 GHz, while the Core 5 330 has a boost clock of 4.60 GHz. The part numbers are SAE3E for the Core 7 360 and SAE3G for the Core 5 330. All other specifications are identical: 6 cores, 6 threads, 1.50 GHz base clock, 15 W TDP, Intel BGA 1516 socket, 3 nm process, Wildcat Lake codename, 6 MB shared L3 cache, 2.5 MB per-core L2 cache, 192 KB L1 cache, DDR5/LPDDR5X memory support, single-channel memory bus, 59.7 GB/s memory bandwidth, Intel Xe3 Graphics (2 Xe), PCIe Gen 4 with 6 lanes, no ECC, locked multiplier, Mobile market segment, Active production status, and a release date of 2026-04-15.

FAQ

Q: Which processor is faster in single-threaded tasks?

A: The Intel Core 7 360. It scores 4274 in PassMark single-thread versus 4088 for the Core 5 330, a 4.5% delta. Cinebench R23 single-core confirms this with 1924 versus 1856, a 3.7% advantage.

Q: Are there any benchmarks where the Core 5 330 wins?

A: Yes, the Core 5 330 wins three tests: extended instructions (12808 vs 12390, 3.3% ahead), data compression (145287 vs 142877, 1.7% ahead), and random string sorting (17771 vs 17636, 0.8% ahead).

Q: Do the two processors have the same core and thread counts?

A: Yes, both have 6 cores and 6 threads. They also share the same base clock of 1.50 GHz and TDP of 15 watts.

Q: What is the main architectural difference between them?

A: The boost clock. The Core 7 360 boosts to 4.80 GHz, while the Core 5 330 boosts to 4.60 GHz. All other listed architecture fields, including the 3 nm process and Wildcat Lake codename, are identical.

Q: How does the Core 7 360 compare to the Intel Core i3-13100?

A: The Core 7 360 has an average benchmark score of 18374, and the Core i3-13100 has an average score of 18380, a deltaPct of 0. They are effectively tied.

Q: Which processor has the higher overall average benchmark score?

A: The Intel Core 7 360 has an average score of 18374, which is 0.2% higher than the Core 5 330’s 18345. Both are in the 72nd percentile of all CPUs.

Where Each One Wins

The Intel Core 7 360 is the winner for any workload that depends on clock speed or single-thread performance. This includes Cinebench rendering (all three versions), PassMark single-thread, floating-point math (44963 vs 43885), integer math (34238 vs 33258), prime number finding (120 vs 114), and data encryption (11164 vs 11076). For content creation, scientific computing, and general productivity, the Core 7 360 is the stronger part. Its 5.3% delta in prime number finding is particularly notable for cryptographic or mathematical workloads.

The Intel Core 5 330 wins in three specific data-processing domains: extended instructions, data compression, and random string sorting. These are not niche to the point of irrelevance; data compression is common in file archiving and database workloads, and extended instructions are used in multimedia processing and certain scientific simulations. For users who know their software relies on these specific instruction paths, the Core 5 330 offers a measurable advantage. The 3.3% delta in extended instructions is the largest win for either processor outside of single-thread tests.

For most users, the Core 7 360 is the safe recommendation. It wins the majority of benchmarks, has a higher boost clock, and shows no significant weakness in any test category. The Core 5 330 is the specialist’s choice, offering competitive overall performance with a slight edge in tasks that favor its specific instruction handling. The two processors are close enough in average score that the decision should be driven by the specific application mix, not by general-purpose assumptions.