AMD Ryzen 5 PRO 8540U vs Intel Core 7 360 Comparison

Head-to-Head Benchmarks

The recorded data shows a clear split between the AMD Ryzen 5 PRO 8540U and the Intel Core 7 360, with the AMD part winning 12 of the 17 head-to-head comparisons. The most decisive AMD victory comes in PassMark integer math, where the Ryzen scores 56738 against 34238, a 65.7% advantage. This is the largest delta in the entire comparison. Data compression also heavily favors AMD, with a score of 205703 versus 142877, a 44% lead. Random string sorting shows a 40.6% gap in AMD's favor, 24797 versus 17636. Extended instructions land at 15410 versus 12390, a 24.4% margin. Multithread performance, a key indicator for parallel workloads, sits at 18218 for AMD versus 15544 for Intel, a 17.2% advantage.

The Cinebench suite consistently favors AMD by nearly identical margins. R15 multicore shows 1557 versus 1374, a 13.3% lead. R15 singlecore gives AMD 219 versus 193, a 13.5% edge. R20 multicore records 6491 versus 5726, 13.4%. R20 singlecore is 916 versus 808, again 13.4%. R23 multicore delivers 15456 versus 13634, and R23 singlecore 2182 versus 1924, both at 13.4%. Data encryption also goes AMD's way, 12319 versus 11164, a 10.3% win.

Intel takes the remaining five comparisons. The largest Intel win is in find prime numbers, where the Core 7 360 scores 120 versus AMD's 66, a 45% reversal. Floating point math also favors Intel, 44963 versus 34865, a 22.5% margin. Physics simulation shows Intel ahead at 1213 versus 983, a 19% gap. Single-thread performance, recorded in both PassMark single thread and singlethread tests, gives Intel 4274 versus 3563, a 16.6% lead in each instance. These wins indicate Intel's strength in specific scalar workloads and math-heavy operations, while AMD dominates the broader multitasking and integer-heavy tests.

Where Each One Wins

The AMD Ryzen 5 PRO 8540U wins in scenarios that stress parallel throughput and data manipulation. Its 12 threads, double the Intel part's 6 threads, drive the multithread advantage and the wide margins in integer math, compression, and sorting. The 65.7% integer math lead suggests strong performance in general productivity applications, database operations, and code compilation where integer arithmetic dominates. The 44% compression advantage points to file archiving, backup tools, and other data-heavy tasks. Extended instructions, with a 24.4% lead, indicates better handling of SIMD workloads commonly found in multimedia encoding and scientific calculations. The consistent 13.4% Cinebench wins across all versions confirm a uniform advantage in rendering and 3D modeling tasks that scale with core count and thread count.

The Intel Core 7 360 wins in single-thread latency-sensitive tasks and specific math domains. The 16.6% single-thread PassMark lead, combined with the 19% physics win, suggests stronger responsiveness in lightly threaded applications such as older games, spreadsheet recalculation, or interactive scripting. The 22.5% floating point advantage indicates Intel's floating-point unit handles scientific simulations, financial modeling, and certain engineering tools more efficiently. The 45% find prime numbers lead is notable for cryptography-related prime generation or mathematical research workloads. However, these wins are narrower in scope, and the Intel part's overall average benchmark score of 18374 sits well below AMD's 23709.

FAQ

Q: Which processor has the higher average benchmark score?

A: The AMD Ryzen 5 PRO 8540U records an average benchmark score of 23709, while the Intel Core 7 360 scores 18374. AMD's percentile ranking among all CPUs is 76, versus Intel's 72.

Q: How large is the multithread performance gap?

A: In PassMark multithread, AMD scores 18218 against Intel's 15544, a 17.2% lead. This aligns with the Cinebench R23 multicore result, where AMD scores 15456 versus 13634, a 13.4% margin.

Q: Does the Intel part win any Cinebench tests?

A: No. The Intel Core 7 360 loses every Cinebench R15, R20, and R23 test, both single-core and multi-core, with AMD winning each by 13.3% to 13.5%.

Q: What explains Intel's wins in PassMark physics and find prime numbers?

A: The data shows Intel ahead by 19% in physics (1213 versus 983) and 45% in find prime numbers (120 versus 66). These are specific workload results, not general indicators, as Intel still loses the overall multithread test.

Q: How do the two parts compare in memory bandwidth?

A: AMD supports dual-channel memory with a recorded bandwidth of 89.6 GB/s. Intel uses single-channel memory with 59.7 GB/s. The AMD part also supports ECC memory, while Intel does not.

Q: What is the launch MSRP for the Intel Core 7 360?

A: The launch MSRP is $426. The AMD Ryzen 5 PRO 8540U has no launch MSRP recorded in the database.

Specification Differences

The two processors differ across nearly every core specification. AMD provides 6 cores and 12 threads, while Intel provides 6 cores and 6 threads, meaning AMD has full simultaneous multithreading and Intel has none. Base clocks diverge sharply: AMD runs at 3.20 GHz, Intel at 1.50 GHz. Boost clocks are closer, 4.90 GHz for AMD versus 4.80 GHz for Intel. Thermal design power also differs, with AMD rated at 28 W and Intel at 15 W.

Cache structures show major differences. AMD allocates 64 KB L1 per core, 1 MB L2 per core, and 16 MB shared L3. Intel allocates 192 KB L1 per core, 2.5 MB L2 per core, and only 6 MB shared L3. AMD's total L3 is more than double Intel's. Memory support diverges: AMD uses DDR5 dual-channel with 89.6 GB/s bandwidth and ECC support. Intel uses DDR5 and LPDDR5X single-channel with 59.7 GB/s and no ECC. PCIe lanes also differ, with AMD offering Gen 4 with 14 lanes (CPU only) versus Intel's Gen 4 with 6 lanes (CPU only).

The sockets are incompatible: AMD uses Socket FP7, Intel uses BGA 1516. Integrated graphics differ, with AMD pairing Radeon 740M and Intel using Intel Xe3 Graphics (2 Xe). Process nodes and foundries differ, with AMD at 4 nm from TSMC and Intel at 3 nm from Intel. AMD's die size is recorded at 137 mm² with 20,900 million transistors; Intel's die size and transistor count are not recorded.

Architecture Differences

The architectural split is fundamental. AMD's Ryzen 5 PRO 8540U uses the Zen 4 architecture under the Hawk Point codename, part of the 8000 series. Intel's Core 7 360 uses the Wildcat Lake codename, with the generation listed as Core 5 (Wildcat Lake). AMD is built on a 4 nm process by TSMC, while Intel uses a 3 nm process by Intel's own foundry. The transistor counts and die sizes reflect this difference: AMD packs 20,900 million transistors into 137 mm², while Intel's figures are absent from the database.

Threading behavior is the most consequential architectural difference. AMD's 6 cores support 12 threads via simultaneous multithreading, which directly explains its 17.2% multithread win and its dominance in integer math. Intel's 6 cores support only 6 threads, relying on higher per-core clock behavior and architectural efficiency for its single-thread wins. The single-thread PassMark result of 4274 for Intel versus 3563 for AMD, a 16.6% gap, shows that Intel's cores are individually faster despite the lower base clock of 1.50 GHz. The boost clocks are nearly identical, 4.80 GHz versus 4.90 GHz, so the per-core advantage comes from the Wildcat Lake design rather than raw clock speed.

Cache architecture also differs in kind, not just size. Intel's 192 KB L1 per core is three times AMD's 64 KB per core, and its 2.5 MB L2 per core is 2.5 times AMD's 1 MB. However, AMD's shared L3 of 16 MB dwarfs Intel's 6 MB. This combination suggests Intel favors per-core fast access, while AMD provides a larger shared pool for thread communication, which benefits its 12-thread workload scheduling.

Memory architecture reinforces the divergence. AMD's dual-channel 89.6 GB/s bandwidth gives it a 50% bandwidth advantage over Intel's single-channel 59.7 GB/s. This bandwidth gap likely contributes to AMD's 44% lead in data compression and 40.6% lead in random string sorting, both memory-intensive operations. ECC support on AMD further positions it for error-sensitive workloads, a feature Intel lacks entirely.

The Verdict

The benchmark data directs a clear choice based on workload type. The AMD Ryzen 5 PRO 8540U is the stronger processor for multithreaded productivity, data processing, and memory-intensive tasks. Its 12 threads, 16 MB L3, dual-channel memory, and 89.6 GB/s bandwidth underpin wins in 12 of 17 tests, including the 65.7% integer math margin and the 44% compression lead. The Cinebench results, uniformly 13.4% ahead across all versions, confirm consistent rendering and content-creation superiority. The AMD part also holds a higher average benchmark score, 23709 versus 18374, and a higher percentile rank, 76 versus 72. For users running compilation, virtualization, database workloads, or media encoding, the data favors AMD.

The Intel Core 7 360 wins 5 of 17 tests, specifically find prime numbers, floating point math, physics, and both PassMark single-thread tests. Its 16.6% single-thread lead and 19% physics advantage indicate better responsiveness for lightly threaded interactive applications. The 22.5% floating point win suggests strength in scientific or financial simulations that rely on double-precision math. The 45% find prime numbers lead points to specialized mathematical workloads. Intel's 15 W TDP also makes it the lower-power option, and its 3 nm node from Intel represents a different manufacturing approach. However, its single-channel memory at 59.7 GB/s and 6 MB L3 limit its broader applicability.

Users prioritizing parallel throughput should select the AMD Ryzen 5 PRO 8540U. Users whose workloads depend on single-thread latency, floating point math, or physics simulation should consider the Intel Core 7 360, despite its higher launch MSRP of $426 and lower overall average score.