
Core Ultra 5 235HX
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EPYC 7313
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Performance Spectrum - CPU
About PassMark
PassMark CPU Mark evaluates processor speed through complex mathematical computations. It provides a reliable metric to compare multi-core performance, where higher scores indicate faster processing for multitasking, gaming, and heavy workloads.
Head-to-Head Verdict, Benchmarks, Value & Long-Term Outlook
This comparison brings together gaming FPS, productivity performance, platform differences, power efficiency, pricing context, and upgrade path so you can see which CPU actually makes more sense.
Core Ultra 5 235HX
2025Why buy it
- ✅Better for gaming: +26.5% higher average FPS across 4 shared CPU benchmark tests.
- ✅Draws 55W instead of 155W, a 100W reduction.
- ✅Newer platform on FCBGA2114 with DDR5 support instead of SP3 and DDR4.
- ✅Integrated graphics onboard with Intel Graphics (48EU), while EPYC 7313 needs a discrete GPU.
Trade-offs
- ❌Lower Cinebench R23 multi-core (21,677 vs 26,500).
- ❌Smaller total L3 cache (24 MB vs 128 MB).
- ❌Less compelling for workstation-style loads than EPYC 7313, which brings 16 cores / 32 threads and 128 PCIe lanes.
EPYC 7313
2021Why buy it
- ✅+22.2% higher Cinebench R23 multi-core.
- ✅+433.3% larger total L3 cache (128 MB vs 24 MB).
- ✅Better for workstations and heavier parallel workloads: 16 cores / 32 threads, plus 128 PCIe lanes vs 24.
- ✅433.3% more PCIe lanes (128 vs 24) for storage and expansion-heavy builds.
Trade-offs
- ❌Worse for gaming: lower average FPS than Core Ultra 5 235HX across 4 shared CPU benchmark tests.
- ❌Launch MSRP is still $1,083 MSRP, while Core Ultra 5 235HX mostly shows up through inconsistent older-market listings.
- ❌181.8% higher power demand at 155W vs 55W.
- ❌Older platform position on SP3 with DDR4, while Core Ultra 5 235HX moves to FCBGA2114 and DDR5.
- ❌No integrated graphics, while Core Ultra 5 235HX can still boot and troubleshoot without a discrete GPU.
Core Ultra 5 235HX
2025EPYC 7313
2021Why buy it
- ✅Better for gaming: +26.5% higher average FPS across 4 shared CPU benchmark tests.
- ✅Draws 55W instead of 155W, a 100W reduction.
- ✅Newer platform on FCBGA2114 with DDR5 support instead of SP3 and DDR4.
- ✅Integrated graphics onboard with Intel Graphics (48EU), while EPYC 7313 needs a discrete GPU.
Why buy it
- ✅+22.2% higher Cinebench R23 multi-core.
- ✅+433.3% larger total L3 cache (128 MB vs 24 MB).
- ✅Better for workstations and heavier parallel workloads: 16 cores / 32 threads, plus 128 PCIe lanes vs 24.
- ✅433.3% more PCIe lanes (128 vs 24) for storage and expansion-heavy builds.
Trade-offs
- ❌Lower Cinebench R23 multi-core (21,677 vs 26,500).
- ❌Smaller total L3 cache (24 MB vs 128 MB).
- ❌Less compelling for workstation-style loads than EPYC 7313, which brings 16 cores / 32 threads and 128 PCIe lanes.
Trade-offs
- ❌Worse for gaming: lower average FPS than Core Ultra 5 235HX across 4 shared CPU benchmark tests.
- ❌Launch MSRP is still $1,083 MSRP, while Core Ultra 5 235HX mostly shows up through inconsistent older-market listings.
- ❌181.8% higher power demand at 155W vs 55W.
- ❌Older platform position on SP3 with DDR4, while Core Ultra 5 235HX moves to FCBGA2114 and DDR5.
- ❌No integrated graphics, while Core Ultra 5 235HX can still boot and troubleshoot without a discrete GPU.
Quick Answers
So, is Core Ultra 5 235HX better than EPYC 7313?
Which one is better for streaming, content creation, and heavy multitasking?
Which one is the smarter buy today, not just the cheaper CPU?
Which one is more future-proof for 2026 and beyond?
Games Benchmarks
To accurately isolate CPU performance, all benchmarks below use an NVIDIA RTX 4090 as the reference GPU. This eliminates GPU-side bottlenecks and highlights pure processing throughput differences between the CPUs.
Note: Real-world results may vary based on your actual GPU. CPU performance impact is more visible in processing-intensive titles and high-refresh-rate gaming scenarios.

Path of Exile 2
| Preset | Core Ultra 5 235HX | EPYC 7313 |
|---|---|---|
| 1080p | ||
| low | 264 FPS | 166 FPS |
| medium | 252 FPS | 136 FPS |
| high | 213 FPS | 116 FPS |
| ultra | 181 FPS | 91 FPS |
| 1440p | ||
| low | 222 FPS | 147 FPS |
| medium | 189 FPS | 118 FPS |
| high | 154 FPS | 94 FPS |
| ultra | 134 FPS | 75 FPS |
| 4K | ||
| low | 150 FPS | 69 FPS |
| medium | 127 FPS | 59 FPS |
| high | 99 FPS | 46 FPS |
| ultra | 87 FPS | 38 FPS |

Counter-Strike 2
| Preset | Core Ultra 5 235HX | EPYC 7313 |
|---|---|---|
| 1080p | ||
| low | 656 FPS | 505 FPS |
| medium | 557 FPS | 441 FPS |
| high | 465 FPS | 354 FPS |
| ultra | 421 FPS | 287 FPS |
| 1440p | ||
| low | 572 FPS | 415 FPS |
| medium | 503 FPS | 372 FPS |
| high | 421 FPS | 307 FPS |
| ultra | 360 FPS | 242 FPS |
| 4K | ||
| low | 338 FPS | 255 FPS |
| medium | 303 FPS | 233 FPS |
| high | 287 FPS | 205 FPS |
| ultra | 251 FPS | 170 FPS |

League of Legends
| Preset | Core Ultra 5 235HX | EPYC 7313 |
|---|---|---|
| 1080p | ||
| low | 839 FPS | 665 FPS |
| medium | 685 FPS | 555 FPS |
| high | 610 FPS | 518 FPS |
| ultra | 522 FPS | 451 FPS |
| 1440p | ||
| low | 727 FPS | 504 FPS |
| medium | 596 FPS | 419 FPS |
| high | 519 FPS | 385 FPS |
| ultra | 441 FPS | 333 FPS |
| 4K | ||
| low | 504 FPS | 372 FPS |
| medium | 425 FPS | 290 FPS |
| high | 382 FPS | 260 FPS |
| ultra | 323 FPS | 209 FPS |

Valorant
| Preset | Core Ultra 5 235HX | EPYC 7313 |
|---|---|---|
| 1080p | ||
| low | 1001 FPS | 903 FPS |
| medium | 906 FPS | 822 FPS |
| high | 786 FPS | 708 FPS |
| ultra | 714 FPS | 624 FPS |
| 1440p | ||
| low | 820 FPS | 721 FPS |
| medium | 729 FPS | 628 FPS |
| high | 631 FPS | 538 FPS |
| ultra | 560 FPS | 460 FPS |
| 4K | ||
| low | 559 FPS | 517 FPS |
| medium | 505 FPS | 462 FPS |
| high | 452 FPS | 406 FPS |
| ultra | 399 FPS | 349 FPS |
Technical Specifications
Side-by-side comparison of Core Ultra 5 235HX and EPYC 7313

Core Ultra 5 235HX
Core Ultra 5 235HX
The Core Ultra 5 235HX is manufactured by Intel. It was released in 13 January 2025 (less than a year ago). It is based on the Arrow Lake-HX (2025) architecture. It features 14 cores and 14 threads. Base frequency is 2.9 GHz, with boost up to 5.1 GHz. L3 cache: 24 MB (total). L2 cache: 3 MB (per core). Built on 3 nm process technology. Socket: FCBGA2114. Thermal design power (TDP): 55 Watt. Memory support: DDR5-6400. Passmark benchmark score: 40,122 points. Launch price was $499.

EPYC 7313
EPYC 7313
The EPYC 7313 is manufactured by AMD. It was released in 15 March 2021 (4 years ago). It is based on the Milan (2021−2023) architecture. It features 16 cores and 32 threads. Base frequency is 3 GHz, with boost up to 3.7 GHz. L3 cache: 128 MB (total). L2 cache: 512 kB (per core). Built on 7 nm+ process technology. Socket: SP3. Thermal design power (TDP): 155 Watt. Memory support: DDR4-3200. Passmark benchmark score: 38,938 points. Launch price was $1,083.
Processing Power
The Core Ultra 5 235HX packs 14 cores / 14 threads, while the EPYC 7313 offers 16 cores / 32 threads — the EPYC 7313 has 2 more cores. Boost clocks reach 5.1 GHz on the Core Ultra 5 235HX versus 3.7 GHz on the EPYC 7313 — a 31.8% clock advantage for the Core Ultra 5 235HX (base: 2.9 GHz vs 3 GHz). The Core Ultra 5 235HX uses the Arrow Lake-HX (2025) architecture (3 nm), while the EPYC 7313 uses Milan (2021−2023) (7 nm+). In PassMark, the Core Ultra 5 235HX scores 40,122 against the EPYC 7313's 38,938 — a 3% lead for the Core Ultra 5 235HX. Cinebench R23 multi-core: 21,677 vs 26,500 (20% advantage for the EPYC 7313). Geekbench 6 single-core — the metric most relevant to gaming — records 2,600 vs 1,736, a 39.9% lead for the Core Ultra 5 235HX that directly translates to higher frame rates. Multi-core Geekbench: 14,000 vs 15,264 (8.6% advantage for the EPYC 7313). L3 cache: 24 MB (total) on the Core Ultra 5 235HX vs 128 MB (total) on the EPYC 7313.
| Feature | Core Ultra 5 235HX | EPYC 7313 |
|---|---|---|
| Cores / Threads | 14 / 14 | 16 / 32+14% |
| Boost Clock | 5.1 GHz+38% | 3.7 GHz |
| Base Clock | 2.9 GHz | 3 GHz+3% |
| L3 Cache | 24 MB (total) | 128 MB (total)+433% |
| L2 Cache | 3 MB (per core)+500% | 512 kB (per core) |
| Process | 3 nm-57% | 7 nm+ |
| Architecture | Arrow Lake-HX (2025) | Milan (2021−2023) |
| PassMark | 40,122+3% | 38,938 |
| Cinebench R23 Multi | 21,677 | 26,500+22% |
| Geekbench 6 Single | 2,600+50% | 1,736 |
| Geekbench 6 Multi | 14,000 | 15,264+9% |
Memory & Platform
The Core Ultra 5 235HX uses the FCBGA2114 socket (PCIe 5.0), while the EPYC 7313 uses SP3 (PCIe 4.0) — making them incompatible on the same motherboard. Maximum memory speed reaches DDR5-6400 on the Core Ultra 5 235HX versus DDR4-3200 on the EPYC 7313 — the Core Ultra 5 235HX supports 22.2% faster memory, which can translate to measurable gains in memory-sensitive workloads. The EPYC 7313 supports up to 4096 GB of RAM compared to 192 GB — 182.1% more capacity for professional workloads. Memory channels: 2 (Core Ultra 5 235HX) vs 8 (EPYC 7313). PCIe lanes: 24 (Core Ultra 5 235HX) vs 128 (EPYC 7313) — the EPYC 7313 offers 104 more lanes for additional GPUs or NVMe drives. Chipset compatibility: HM870,WM880 (Core Ultra 5 235HX) and SP3,Milan (EPYC 7313).
| Feature | Core Ultra 5 235HX | EPYC 7313 |
|---|---|---|
| Socket | FCBGA2114 | SP3 |
| PCIe Generation | PCIe 5.0+25% | PCIe 4.0 |
| Max RAM Speed | DDR5-6400+25% | DDR4-3200 |
| Max RAM Capacity | 192 GB | 4096 GB+2033% |
| RAM Channels | 2 | 8+300% |
| ECC Support | No | Yes |
| PCIe Lanes | 24 | 128+433% |
Advanced Features
Only the Core Ultra 5 235HX has an unlocked multiplier for overclocking — a significant advantage for enthusiasts seeking extra performance. Virtualization support: VT-x, VT-d (Core Ultra 5 235HX) vs AMD-V, SEV, IOMMU (EPYC 7313). The Core Ultra 5 235HX includes integrated graphics (Intel Graphics (48EU)), while the EPYC 7313 requires a dedicated GPU. Primary use case: Core Ultra 5 235HX targets Laptop, EPYC 7313 targets Server / High-load computing. Direct competitor: EPYC 7313 rivals Xeon Gold 6326.
| Feature | Core Ultra 5 235HX | EPYC 7313 |
|---|---|---|
| Integrated GPU | Yes | No |
| IGPU Model | Intel Graphics (48EU) | — |
| Unlocked | Yes | No |
| AVX-512 | No | No |
| Virtualization | VT-x, VT-d | AMD-V, SEV, IOMMU |
| Target Use | Laptop | Server / High-load computing |
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