Intel Core 7 360 vs Intel Core Ultra 5 235HX Comparison

Head-to-Head Benchmarks

The benchmark data presents a remarkably one-sided comparison. Across all 17 recorded head-to-head tests, the Intel Core Ultra 5 235HX takes the win, while the Intel Core 7 360 fails to secure a single victory. The margins, however, vary dramatically depending on the workload type.

The most significant gaps appear in multi-threaded and data-intensive tasks. In Cinebench R23 multi-core, the Core Ultra 5 235HX scores 34,731 against the Core 7 360's 13,634, a delta of -60.7% from the perspective of the smaller chip. This pattern repeats across the entire Cinebench suite: R15 multi-core shows 3,500 versus 1,374 (-60.7%), R20 multi-core shows 14,587 versus 5,726 (-60.7%), and R23 single-core shows 4,903 versus 1,924 (-60.8%). The consistency of these deltas, hovering near 60-61%, suggests a fundamental throughput difference rather than a workload-specific quirk.

PassMark results amplify the divide in specialized operations. Data compression delivers 426,417 on the Core Ultra 5 235HX versus 142,877 on the Core 7 360, a 66.5% deficit for the latter. Prime number finding shows 361 versus 120 (-66.8%), floating point math shows 129,819 versus 44,963 (-65.4%), and integer math shows 97,177 versus 34,238 (-64.8%). Encryption tasks follow suit with 32,697 versus 11,164 (-65.9%). These tasks all involve sustained parallel execution, where the Core Ultra 5 235HX's additional cores and threads provide a decisive advantage.

The closest contest appears in single-threaded PassMark testing. The Core Ultra 5 235HX scores 4,683, while the Core 7 360 manages 4,274, a delta of only -8.7%. This is the narrowest margin in the entire dataset, indicating that per-core performance is relatively comparable. The Core 7 360's boost clock of 4.80 GHz approaches the Core Ultra 5 235HX's 5.10 GHz, and the single-thread benchmark reflects that proximity. Still, the Core Ultra 5 235HX wins even here.

The physics test shows the smallest percentage gap overall at -52.4% (2,550 versus 1,213). This test may rely less on raw core count and more on memory latency or cache behavior, but the outcome remains unchanged. The Core Ultra 5 235HX maintains its dominance across every measured category, from compression to encryption to extended instruction sets.

The average benchmark score tells a similar story. The Core Ultra 5 235HX averages 52,073, placing it in the 91st percentile of all CPUs in the database. The Core 7 360 averages 18,374, sitting in the 72nd percentile. The difference in average score is roughly 2.8x, which aligns with the multi-threaded deltas observed throughout the head-to-head tests.

The Verdict

The data leaves little room for ambiguity. The Intel Core Ultra 5 235HX outperforms the Intel Core 7 360 in every single recorded benchmark, and by substantial margins in most of them. The Core 7 360's nearest rivals, according to the database, include the Intel Core i3-13100 (average score 18,380, delta 0%), the Intel Core 5 330 (18,345, delta 0.2%), and the Intel Core i3-14100 (18,318, delta 0.3%). The Core Ultra 5 235HX, by contrast, competes with the AMD EPYC 8124P (52,121, delta -0.1%), the AMD Ryzen 9 5950X (51,947, delta 0.2%), and the Intel Core i7-14700 (52,301, delta -0.4%). These rival groupings confirm that the two chips occupy entirely different performance tiers.

For users whose workloads are dominated by multi-threaded rendering, data compression, encryption, or floating-point math, the Core Ultra 5 235HX is the only rational choice based on the measurements. The 60-66% advantages in these categories translate directly into shorter render times and faster batch processing. Even in single-threaded tasks, where the Core 7 360 comes closest, the Core Ultra 5 235HX still leads by 8.7%.

The Core 7 360, however, is not without a role. Its 15 W TDP, compared to the Core Ultra 5 235HX's 55 W, suggests a fundamentally different power envelope. The Core 7 360 uses a single-channel memory bus with 59.7 GB/s bandwidth, while the Core Ultra 5 235HX uses dual-channel with 102.4 GB/s. These specifications, combined with the benchmark results, indicate that the Core 7 360 targets efficiency-constrained mobile designs where sustained heavy loads are rare. The Core Ultra 5 235HX, with its 14 cores and 14 threads, targets high-performance laptops where thermal headroom is available.

FAQ

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

A: The Intel Core Ultra 5 235HX scores 34,731, while the Intel Core 7 360 scores 13,634, giving the Core Ultra 5 235HX a 60.7% lead.

Q: How close are the two in single-threaded PassMark performance?

A: The Core Ultra 5 235HX scores 4,683, and the Core 7 360 scores 4,274, a difference of 8.7% in favor of the Core Ultra 5 235HX.

Q: What is the average benchmark score for each processor?

A: The Core Ultra 5 235HX averages 52,073, placing it in the 91st percentile. The Core 7 360 averages 18,374, placing it in the 72nd percentile.

Q: Which processor has more cores and threads?

A: The Core Ultra 5 235HX has 14 cores and 14 threads. The Core 7 360 has 6 cores and 6 threads.

Q: What is the TDP difference between the two?

A: The Core 7 360 has a TDP of 15 W, while the Core Ultra 5 235HX has a TDP of 55 W.

Q: Which processor supports faster PCIe connectivity?

A: The Core Ultra 5 235HX supports PCIe Gen 5 with 20 lanes, while the Core 7 360 supports PCIe Gen 4 with 6 lanes.

Specification Differences

The two processors diverge on nearly every major specification except for manufacturer, market segment, and production status. The Core 7 360 uses 6 cores and 6 threads, while the Core Ultra 5 235HX uses 14 cores and 14 threads. Base clocks differ significantly: 1.50 GHz for the Core 7 360 versus 2.90 GHz for the Core Ultra 5 235HX. Boost clocks show 4.80 GHz versus 5.10 GHz respectively.

The TDP rating separates the two by 40 W, with the Core 7 360 at 15 W and the Core Ultra 5 235HX at 55 W. Socket compatibility also differs: the Core 7 360 uses Intel BGA 1516, while the Core Ultra 5 235HX uses Intel BGA 2114. The Core 7 360 carries the part number SAE3E, and the Core Ultra 5 235HX carries SRVFL.

Memory support diverges as well. The Core 7 360 supports DDR5 and LPDDR5X over a single-channel bus with 59.7 GB/s bandwidth. The Core Ultra 5 235HX supports only DDR5, but over a dual-channel bus with 102.4 GB/s bandwidth. PCIe capabilities differ by generation and lane count: Gen 4 with 6 lanes for the Core 7 360, Gen 5 with 20 lanes for the Core Ultra 5 235HX.

Integrated graphics differ in both branding and execution units. The Core 7 360 uses Intel Xe3 Graphics with 2 Xe units, while the Core Ultra 5 235HX uses Arc Xe-LPG Graphics with 48 EU. The multiplier is locked on the Core 7 360 but unlocked on the Core Ultra 5 235HX. The release dates also differ, with the Core Ultra 5 235HX appearing earlier in the database. The Core 7 360 has a launch MSRP of $426, while no launch MSRP is recorded for the Core Ultra 5 235HX.

Architecture Differences

The Core 7 360 is built on the Wildcat Lake codename, while the Core Ultra 5 235HX uses Arrow Lake-HX. Both processors are manufactured on a 3 nm process node, but the foundry differs: Intel produces the Core 7 360, while TSMC produces the Core Ultra 5 235HX. The Core Ultra 5 235HX lists a transistor count of 17,800 million and a die size of 243 mm², while the Core 7 360 does not report these figures.

Cache organization shows both shared and divergent elements. The L1 cache is identical at 192 KB per core for both. The L2 cache differs: 2.5 MB per core for the Core 7 360 versus 3 MB per core for the Core Ultra 5 235HX. The shared L3 cache shows the largest difference, with 6 MB for the Core 7 360 and 24 MB for the Core Ultra 5 235HX.

The generation labels reflect distinct positioning. The Core 7 360 belongs to the "Core 5 (Wildcat Lake)" generation, while the Core Ultra 5 235HX belongs to the "Ultra 5 (Arrow Lake-HX)" generation. Neither processor supports ECC memory. The Core Ultra 5 235HX belongs to the Core Ultra Series 2 family, while the Core 7 360 has no series designation recorded.

Where Each One Wins

The Intel Core Ultra 5 235HX wins every benchmark category in the head-to-head comparison, but the nature of the wins suggests specific strengths. Multi-threaded rendering workloads, represented by Cinebench R15, R20, and R23 multi-core tests, show consistent 60.7% advantages. These results point to the Core Ultra 5 235HX as the choice for video rendering, 3D modeling, and other tasks that scale with core count.

Data-heavy operations favor the Core Ultra 5 235HX even more strongly. Compression, encryption, integer math, and floating point math all show deltas between 64.8% and 66.5%. These workloads benefit from the combination of 14 cores, the larger 24 MB L3 cache, and the dual-channel memory interface with 102.4 GB/s bandwidth. The Core 7 360's 6 MB L3 cache and single-channel 59.7 GB/s memory present clear bottlenecks in these scenarios.

The single-threaded PassMark test, with its 8.7% delta, represents the Core 7 360's best relative performance. This suggests that for lightly threaded tasks such as basic office productivity, web browsing, or legacy software that uses one core, the Core 7 360 is not far behind. Its 4.80 GHz boost clock helps close the gap, and its 15 W TDP means it can sustain such workloads without significant thermal management.

The physics test, at -52.4%, shows the smallest absolute advantage for the Core Ultra 5 235HX. Physics simulations often depend on memory latency and cache efficiency, where the Core Ultra 5 235HX's larger L3 cache and dual-channel memory provide an edge, but the Core 7 360's per-core L2 cache of 2.5 MB versus 3 MB keeps the difference from growing larger.

The Core 7 360's role emerges from its efficiency profile. With a 15 W TDP, single-channel memory, and 6 cores, it suits ultraportable laptops where battery life and thermal limits take priority over raw throughput. The benchmark data shows it can handle single-threaded tasks with reasonable competence, but any sustained multi-threaded load will expose the performance gap. The Core Ultra 5 235HX, with its 55 W TDP, 14 cores, and dual-channel memory, targets performance laptops and mobile workstations where the additional power draw is acceptable in exchange for 2.8x the average benchmark score.