AMD EPYC 9175F vs Intel Xeon w7-2595X Comparison

Head-to-Head Benchmarks

The benchmark data reveals a clear split: AMD's EPYC 9175F dominates in rendering and single-threaded workloads, while Intel's Xeon w7-2595X takes the lead in most PassMark compute tasks. Across 17 head-to-head tests, the AMD EPYC 9175F wins 11, while the Intel Xeon w7-2595X takes 6. However, the margin of victory tells a more nuanced story than the win count alone.

In Cinebench, the AMD EPYC 9175F wins every single test, but by a razor-thin margin. Across all six Cinebench runs (R15, R20, and R23, each in single-core and multi-core), the delta is consistently -1.9% in favor of AMD. The multi-core scores are nearly identical: 5,636 vs 5,530 in R15, 23,487 vs 23,042 in R20, and 55,923 vs 54,863 in R23. Single-core results follow the same pattern: 795 vs 780 in R15, 3,315 vs 3,252 in R20, and 7,895 vs 7,745 in R23. These are effectively statistical ties, with AMD holding a marginal edge that repeats uniformly across every Cinebench iteration. The Intel Xeon w7-2595X has 26 cores and 52 threads, while the AMD EPYC 9175F has 16 cores and 32 threads, so AMD's ability to match Intel's multi-core Cinebench output with 10 fewer cores is remarkable.

The PassMark suite flips the script. The Intel Xeon w7-2595X wins data compression by 13.4% (983,046 vs 867,186), data encryption by 17.7% (49,782 vs 42,297), extended instructions by 10% (77,613 vs 70,529), floating point math by a commanding 39% (202,906 vs 145,939), integer math by 18.9% (261,384 vs 219,800), and random string sorting by 6.7% (102,230 vs 95,783). These are substantial, workload-defining victories. The floating point gap of 39% is the largest single-test advantage for either processor in the entire comparison.

The AMD EPYC 9175F counters with equally decisive wins in other PassMark tests. The most dramatic is find prime numbers, where AMD scores 741 vs Intel's 259, a 65% advantage. Even more lopsided is PassMark physics: AMD scores 9,984 vs Intel's 2,759, a 72.4% lead. The AMD chip also wins PassMark multi-thread (67,634 vs 64,628, a 4.4% edge) and PassMark single-thread (4,256 vs 3,723, a 12.5% advantage). The single-thread result is particularly meaningful because it is not a one-off: the same 12.5% delta appears in both passmark_single_thread and passmark_singlethread, confirming consistency.

Looking at average benchmark scores, the Intel Xeon w7-2595X posts an average of 108,663 across all tests, while the AMD EPYC 9175F averages 95,615. That is a 13.6% overall advantage for Intel, driven largely by its dominance in the math-heavy PassMark workloads. The percentile rankings are close: Intel sits at the 97th percentile of all CPUs, AMD at the 96th. Intel's nearest rival in the database is the AMD Ryzen 9 PRO 9955, which scores 110,612 (1.8% higher), while AMD's nearest rival is the AMD EPYC 4565P at 95,764 (0.2% lower), showing that both CPUs sit in a tightly contested performance tier.

Where Each One Wins

The Intel Xeon w7-2595X is the clear choice for general compute and data-heavy server tasks. Its wins in data compression, data encryption, and extended instructions point to a processor that handles enterprise workloads, database operations, and encryption-heavy services with more headroom. The 39% lead in floating point math and 18.9% lead in integer math suggest that scientific computing, financial modeling, and any workload relying on heavy number crunching will run faster on the Intel part. The 13.4% compression advantage matters for storage servers, backup systems, and data pipelines. The 17.7% encryption edge is relevant for secure communications, VPN endpoints, and any workload that encrypts data in transit or at rest. The 6.7% random string sorting advantage indicates better performance in sorting-heavy tasks like log processing or in-memory database operations.

The AMD EPYC 9175F wins where its architecture shines. The 72.4% lead in PassMark physics is the largest gap of any test, and physics simulations typically rely on single-threaded performance and specialized instruction paths. The 65% lead in find prime numbers suggests the AMD part handles algorithmically intensive integer loops far more efficiently. The 12.5% single-thread advantage makes it the better choice for lightly threaded applications, legacy software, and workloads where per-core speed matters more than total core count. Its 4.4% lead in PassMark multi-thread is notable because it achieves this with only 16 cores and 32 threads versus Intel's 26 cores and 52 threads, meaning AMD's per-thread efficiency is substantially higher. In Cinebench, the AMD chip wins all six tests, but by such a narrow margin (1.9%) that the practical difference is negligible. Still, for rendering workloads that use Cinebench's specific instruction patterns, the AMD part holds a consistent, if small, edge.

The division is clean. If the workload is math-heavy, data-dense, or relies on encryption, the Intel Xeon w7-2595X delivers. If the workload is physics-based, single-threaded, or rewards high per-core throughput, the AMD EPYC 9175F is faster.

The Verdict

The data points to a simple conclusion: the Intel Xeon w7-2595X is the better all-around compute processor, while the AMD EPYC 9175F is the better per-core performer. The Intel part wins 6 of 17 head-to-head tests, but its wins include the most broadly applicable enterprise workloads: floating point math, integer math, data compression, and data encryption. These are the operations that dominate real server and workstation usage. The 39% floating point advantage is not marginal, it is a decisive, workload-defining gap.

The AMD EPYC 9175F wins the Cinebench suite and the PassMark multi-thread and single-thread tests, but its Cinebench wins are all within 1.9% of Intel, making them effectively ties in real-world rendering. The physics and prime number wins are dramatic, but these are narrower workload categories. The 12.5% single-thread advantage is real and matters for software that cannot use many cores, but it does not offset Intel's dominance in the broader PassMark compute categories.

For buyers running mixed enterprise workloads, database servers, or scientific computing, the Intel Xeon w7-2595X is the data-backed choice. Its average benchmark score of 108,663 versus AMD's 95,615 reflects a processor that delivers more total throughput across a wider range of tasks. For buyers running physics simulations, prime-number-heavy cryptography, or single-threaded applications where per-core speed is the only metric that matters, the AMD EPYC 9175F is the better fit, especially given its 5.00 GHz boost clock versus Intel's 4.80 GHz. The AMD part also offers 512 MB of shared L3 cache versus Intel's 48.75 MB, which may explain its efficiency in cache-sensitive workloads. The verdict is not about which CPU is faster, it is about which workload profile you are targeting.

FAQ

Q: Which CPU wins in Cinebench multi-core tests?

A: The AMD EPYC 9175F wins all three Cinebench multi-core tests, but by only 1.9% in each. Scores are 5,636 vs 5,530 in R15, 23,487 vs 23,042 in R20, and 55,923 vs 54,863 in R23.

Q: How large is the floating point performance gap?

A: The Intel Xeon w7-2595X leads floating point math by 39%, scoring 202,906 versus the AMD EPYC 9175F's 145,939.

Q: Which CPU has better single-threaded performance?

A: The AMD EPYC 9175F wins single-threaded tests by 12.5%, scoring 4,256 versus Intel's 3,723 in both PassMark single-thread measurements.

Q: How do the core counts compare?

A: The Intel Xeon w7-2595X has 26 cores and 52 threads, while the AMD EPYC 9175F has 16 cores and 32 threads.

Q: What is the biggest single-test advantage for either CPU?

A: The AMD EPYC 9175F leads PassMark physics by 72.4%, scoring 9,984 versus Intel's 2,759. Intel's largest win is 39% in floating point math.

Q: Which CPU has the higher average benchmark score?

A: The Intel Xeon w7-2595X averages 108,663 across all tests, compared to the AMD EPYC 9175F's 95,615.

Architecture Differences

The two processors come from fundamentally different design philosophies. The Intel Xeon w7-2595X is built on the Sapphire Rapids architecture, manufactured on Intel's 10 nm process at Intel's own foundry. The AMD EPYC 9175F uses the Zen 5 architecture, codenamed Turin, built on a 4 nm process at TSMC. AMD's process advantage is significant, and its transistor count reflects the density of the design: 133,040 million transistors spread across 16 chiplets, each 70.6 mm². Intel does not report a transistor count or die size in the database, but the architectural difference is visible in the L3 cache. AMD provides 512 MB of shared L3 cache, while Intel provides 48.75 MB. That 10x difference in L3 cache is one of the largest architectural gaps between the two.

Both CPUs use 80 KB of L1 cache per core. The L2 cache differs: Intel uses 2 MB per core, AMD uses 1 MB per core. This means Intel's per-core L2 is double AMD's, though AMD's massive shared L3 likely compensates in workloads that benefit from large pooled caches. Both support DDR5 memory and ECC memory, and neither has integrated graphics. Both target the server and workstation market segment, and both are active production parts.

The process node gap is substantial: 10 nm for Intel versus 4 nm for AMD. This explains how AMD achieves similar or better multi-core performance with 10 fewer cores, the smaller process node allows higher clock speeds at similar power envelopes. The AMD part boosts to 5.00 GHz versus Intel's 4.80 GHz, and its base clock of 4.20 GHz is far higher than Intel's 2.80 GHz. The base clock difference is 50%, which is the largest clock-speed gap in the comparison.

Specification Differences

The core counts differ significantly: Intel has 26 cores and 52 threads, AMD has 16 cores and 32 threads. Clock speeds also differ: Intel's base clock is 2.80 GHz with a boost of 4.80 GHz, while AMD's base clock is 4.20 GHz with a boost of 5.00 GHz. The TDP ratings differ as well: Intel draws 250 W, AMD draws 320 W. Sockets are incompatible: Intel uses Socket 4677, AMD uses Socket SP5. The process nodes differ (10 nm for Intel, 4 nm for AMD), and the foundries differ (Intel for the Xeon, TSMC for the EPYC).

Memory channels differ substantially: Intel supports quad-channel memory, AMD supports twelve-channel memory. This drives a large memory bandwidth gap: Intel provides 153.6 GB/s, AMD provides 576.0 GB/s, a 3.75x difference. PCIe lane counts also differ: Intel provides 64 Gen 5 lanes (CPU only), AMD provides 128 Gen 5 lanes (CPU only), exactly double. The L3 cache differs as noted: 48.75 MB for Intel versus 512 MB for AMD. L2 cache differs per core: 2 MB for Intel, 1 MB for AMD.

The AMD EPYC 9175F has a locked multiplier, while the Intel Xeon w7-2595X has an unlocked multiplier, which may matter for overclocking-oriented buyers. The release dates differ by about six weeks: Intel launched on 2024-08-23, AMD on 2024-10-09. The part numbers are SRN4C for Intel and 100-000001145 for AMD. The AMD part belongs to the EPYC 9005 series, while Intel does not list a series designation. The AMD part is listed with a launch MSRP of $4256, while the Intel part is listed with a launch MSRP of $2039.