Intel Core 5 320 vs Intel Core 7 360 Comparison

Head-to-Head Benchmarks

The benchmark data reveals a surprisingly split personality between these two Wildcat Lake mobile processors. The Intel Core 7 360 dominates the multi-core arena, while the Intel Core 5 320 occasionally snatches single-threaded and specialized workload victories. The most dramatic separation occurs in Cinebench R23 multi-core, where the Core 7 360 scores 13634 against the Core 5 320's 6197, a staggering 120% advantage. This is not a marginal difference; it points to fundamentally different performance ceilings in sustained parallel workloads.

Cinebench R15 multi-core tells a similar story, though less extreme. The Core 7 360 posts 1374 versus 1054 for the Core 5 320, a 30.4% lead. The R20 multi-core gap narrows considerably to 4.8%, with scores of 5726 and 5462 respectively. This inconsistency across Cinebench versions is curious. The R23 result suggests the Core 7 360 can sustain high multi-threaded throughput, while the R20 result hints at possible thermal or power constraints that flatten the curve under certain test conditions. The data does not explain the mechanism, but the pattern is worth investigating.

Single-core results are far more tangled. In Cinebench R15 single-core, the Core 5 320 wins decisively with 276 against 193, a 30.1% swing in its favor. Yet in Cinebench R20 single-core, the Core 7 360 flips the script with 808 versus 771, a 4.8% edge. R23 single-core is essentially a tie: 1924 for the Core 7 360 and 1926 for the Core 5 320, a negligible 0.1% difference. The R15 anomaly stands out. A 30% single-core deficit for the Core 7 360 in one test, followed by near-parity in newer versions, suggests workload-specific behavior rather than a raw clock disadvantage.

PassMark results reinforce the mixed picture. The Core 7 360 wins single-thread testing with 4274 against 4045, a 5.7% margin. It also leads in integer math (34238 vs 32323, 5.9%), floating-point math (44963 vs 42440, 5.9%), prime number finding (120 vs 110, 9.1%), and data encryption (11164 vs 10984, 1.6%). The Core 5 320, however, takes data compression (148779 vs 142877, 4%), extended instructions (13262 vs 12390, 6.6%), random string sorting (18038 vs 17636, 2.2%), and physics (1221 vs 1213, 0.7%). The multithread PassMark score is nearly flat: 15544 for the Core 7 360 versus 15450 for the Core 5 320, only a 0.6% edge.

The overall win count favors the Core 7 360 with 11 wins against 6 for the Core 5 320. Yet the average benchmark scores tell a closer story: the Core 7 360 averages 18374, while the Core 5 320 averages 18023. Both sit at the 72nd percentile among all CPUs. The database places the Core 7 360 next to the Intel Core i3-13100 (18380, 0% delta) and the Intel Core 5 330 (18345, 0.2% delta). The Core 5 320 lands near the AMD Ryzen 5 1600 (17994, 0.2% delta) and the Intel Core i5-1334U (18154, -0.7% delta). In other words, the Core 7 360's average performance aligns with older desktop i3 parts, while the Core 5 320 tracks closer to mid-range laptop chips from previous generations.

FAQ

Q: Which processor has the higher boost clock?

A: The Intel Core 7 360 boosts to 4.80 GHz, while the Intel Core 5 320 boosts to 4.60 GHz.

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

A: The Core 7 360 scores 13634 compared to 6197 for the Core 5 320, which is a 120% advantage.

Q: Does the Core 5 320 win any single-core benchmarks?

A: Yes. It wins Cinebench R15 single-core (276 vs 193, a 30.1% margin) and Cinebench R23 single-core by a razor-thin 0.1% (1926 vs 1924). The Core 7 360 wins R20 single-core (808 vs 771, 4.8%) and PassMark single-thread (4274 vs 4045, 5.7%).

Q: Are the two processors built on the same manufacturing process?

A: Yes, both are fabricated on Intel's 3 nm process node and share the Wildcat Lake codename.

Q: What is the memory bandwidth for each chip?

A: Both support DDR5 and LPDDR5X memory with a single-channel bus and 59.7 GB/s bandwidth.

Q: Which processor has the higher average benchmark score?

A: The Core 7 360 averages 18374, while the Core 5 320 averages 18023. Both are at the 72nd percentile of all CPUs.

Architecture Differences

Both processors share the Wildcat Lake codename and Intel's 3 nm process node, but the database reveals subtle divergence in their specifications. The Core 7 360 lists its L1 cache as 192 KB per core and L2 as 2.5 MB per core, while the Core 5 320 lists L1 as simply 192 KB and L2 as 2.5 MB without the "per core" qualifier. Both share the same 6 MB shared L3 cache. This could indicate identical physical cache hierarchies with different documentation, or it could hint at a partitioned L2 arrangement in the Core 5 320. The benchmark data does not resolve this ambiguity.

Core and thread counts are identical: 6 cores and 6 threads for both. Base clocks match at 1.50 GHz. The boost clocks differ, with the Core 7 360 reaching 4.80 GHz versus 4.60 GHz for the Core 5 320. TDP is the same at 15 watts, and both use the Intel BGA 1516 socket. Neither has an unlocked multiplier.

Memory support is identical: DDR5 and LPDDR5X, single-channel, 59.7 GB/s. PCIe connectivity matches at Gen 4 with 6 lanes (CPU only). Integrated graphics are the same Intel Xe3 Graphics with 2 Xe cores. ECC memory is not supported on either.

The generation field for both reads "Core 5 (Wildcat Lake)", which is a labeling quirk in the database. The part numbers differ: SAE3E for the Core 7 360 and SAE3H for the Core 5 320. Both were released on the same date and remain in active production. The launch MSRP is $426 for the Core 7 360 and $340 for the Core 5 320.

The most significant architectural question comes from the benchmark data itself. The Core 7 360's massive 120% lead in Cinebench R23 multi-core, despite identical core counts and only a 0.20 GHz boost advantage, suggests a different power delivery or thermal design, possibly a higher sustained boost under load. The R15 single-core result, where the Core 5 320 leads by 30.1%, complicates this further. A 0.20 GHz boost difference should not produce a 30% swing in either direction. The data implies that the two chips have distinct boost behaviors, perhaps with different thermal throttling thresholds or silicon binning, but the database does not specify these details.

The Verdict

The recorded benchmarks point to a clear split. The Intel Core 7 360 is the stronger multi-threaded performer, with a 120% lead in Cinebench R23 multi-core, a 30.4% lead in R15 multi-core, and a 4.8% lead in R20 multi-core. It also wins the majority of PassMark compute workloads, including single-thread, integer math, floating-point math, and prime number finding. For users running heavily parallel workloads like rendering, compilation, or scientific computing, the Core 7 360 is the data-backed choice.

The Intel Core 5 320 holds its own in specific single-threaded and memory-oriented tasks. Its Cinebench R15 single-core win by 30.1% is the largest single-core margin in the head-to-head table. It also wins data compression, extended instructions, random string sorting, and physics. These are workloads that often depend on memory latency, instruction-level parallelism, or specialized execution units rather than raw core throughput.

The average benchmark scores place both chips at the 72nd percentile, and their nearest rivals overlap with both older Intel desktop parts and mid-range mobile chips. The Core 7 360's 120% R23 multi-core advantage, however, is not reflected in its average score, which is only 1.9% higher than the Core 5 320. This suggests that the Core 7 360's multi-core dominance is concentrated in specific sustained-load scenarios, while everyday mixed workloads may not expose the full gap.

Users who prioritize multi-threaded rendering or simulation should select the Core 7 360. Users who value single-core responsiveness in legacy benchmarks or specialized data tasks may find the Core 5 320 sufficient, especially given its wins in compression and extended instructions. The data does not support a universal winner; it supports a workload-dependent choice.

Specification Differences

| Field | Intel Core 7 360 | Intel Core 5 320 |

| --- | --- | --- |

| Boost Clock | 4.80 GHz | 4.60 GHz |

| L1 Cache | 192 KB (per core) | 192 KB |

| L2 Cache | 2.5 MB (per core) | 2.5 MB |

| Launch MSRP | $426 | $340 |

| Part Number | SAE3E | SAE3H |

All other recorded 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, DDR5/LPDDR5X memory support, single-channel bus, 59.7 GB/s bandwidth, no ECC, PCIe Gen 4 with 6 lanes, Intel Xe3 Graphics with 2 Xe cores, mobile market segment, active production, and the same release date.

Where Each One Wins

The Core 7 360 wins in multi-core rendering benchmarks and general compute throughput. Cinebench R23 multi-core shows the largest gap at 120%, followed by R15 multi-core at 30.4% and R20 multi-core at 4.8%. PassMark integer math and floating-point math both show 5.9% leads. Prime number finding is 9.1% faster. Single-thread PassMark is 5.7% faster. Data encryption is 1.6% faster. The multithread PassMark score is nearly even at 0.6% ahead. Users running video encoding, 3D rendering, code compilation, or heavy spreadsheet calculations should expect the Core 7 360 to pull ahead.

The Core 5 320 wins in a narrower set of tasks. Its Cinebench R15 single-core score is 30.1% higher, which is the single largest victory for either chip in any single-core test. It also leads in PassMark extended instructions by 6.6%, data compression by 4%, random string sorting by 2.2%, and physics by 0.7%. The R23 single-core result is effectively tied, with the Core 5 320 ahead by 0.1%. These wins cluster around memory-intensive or instruction-specialized workloads. Data compression and string sorting often benefit from memory bandwidth and cache behavior, while extended instructions reward broader SIMD or specialized opcode support. The physics test, a simulation-heavy workload, also favors the Core 5 320, though the margin is small.

The overall benchmark count favors the Core 7 360 at 11 wins to 6. The average scores are close, but the distribution of wins matters more than the count. The Core 7 360's wins are concentrated in compute-heavy multi-threaded tests, while the Core 5 320's wins are scattered across single-threaded and data-oriented tasks. For a mobile platform with a 15 W TDP, the Core 7 360 appears to offer better sustained performance in demanding applications, while the Core 5 320 provides a more balanced profile with occasional advantages in niche workloads. The choice between them depends entirely on whether the user's primary applications align with the Core 7 360's multi-threaded strengths or the Core 5 320's specialized wins.