AMD Ryzen 5 8500G vs Intel Core i9-14901E Comparison

FAQ

Q: Which processor has a higher average benchmark score?

A: The Intel Core i9-14901E records an average benchmark score of 37911, placing it in the 86th percentile of all CPUs. The AMD Ryzen 5 8500G posts an average score of 20425, which sits in the 74th percentile.

Q: How does the AMD Ryzen 5 8500G compare to its nearest rivals?

A: The database shows the Ryzen 5 8500G is essentially tied with the AMD EPYC 9454P (0% difference), sits 0.1% behind the Intel Core Ultra 7 258V, 0.2% behind the AMD Ryzen 5 5600, and 0.3% ahead of the AMD EPYC 7713.

Q: What are the closest competitors to the Intel Core i9-14901E?

A: The Intel chip is statistically even with the AMD Ryzen AI 9 HX 370 (0% delta), 0.1% ahead of the AMD Ryzen 7 9700X, 0.2% ahead of the Intel Core 5 211E, and 0.3% ahead of the AMD Ryzen AI Embedded P132.

Q: Which chip wins the most head-to-head benchmark comparisons?

A: The Intel Core i9-14901E wins 16 of the 17 recorded head-to-head tests. The AMD Ryzen 5 8500G wins only one, the PassMark extended instructions test.

Q: Do both processors support ECC memory?

A: Yes, both the AMD Ryzen 5 8500G and the Intel Core i9-14901E list ECC memory support as enabled in the database.

Q: What is the difference in process node between the two?

A: The AMD Ryzen 5 8500G is fabricated on a 4 nm process by TSMC, while the Intel Core i9-14901E uses a 10 nm process from Intel.

Where Each One Wins

The benchmark data paints a decisive picture: the Intel Core i9-14901E dominates nearly every recorded workload category. Its wins span rendering, math operations, encryption, compression, sorting, and physics simulations. The only measurable victory for the AMD Ryzen 5 8500G comes in the PassMark extended instructions test, where it scores 19098 versus 17249, a margin of 10.7%. This suggests the AMD architecture handles extended instruction sets more efficiently, but that single advantage does not translate into broader application-level dominance.

The Intel processor's multi-threaded superiority is consistent across Cinebench versions. In Cinebench R15, R20, and R23 multicore tests, the Intel chip posts scores of 2595, 10816, and 25753 respectively, versus AMD's 1851, 7714, and 18368. Each of these represents a 28.7% deficit for the AMD part. The same relative gap appears in single-core Cinebench runs, where Intel leads by 28.7% in R15 and R23, and 28.6% in R20.

The PassMark suite reinforces the Intel advantage with several large wins. In floating point math, Intel scores 81089 against AMD's 39074, a 51.8% gap. Integer math shows Intel at 112736 versus 63123, a 44% difference. Physics simulation reveals the largest single margin: Intel scores 3041, AMD scores 1318, a 56.7% deficit. Prime number finding also favors Intel heavily, 189 versus 87, a 54% gap. These are not marginal differences; they reflect fundamental throughput advantages in the Intel design.

For users focused on single-thread responsiveness, the Intel chip still leads, but by a smaller margin. The PassMark single-thread test shows Intel at 4354 versus AMD's 3891, a 10.6% advantage. The Cinebench single-core tests show larger relative gaps, around 28.7%, but the absolute scores are lower for both parts in those older tests. The AMD processor does keep pace better in lightly threaded integer work, though it still trails.

The AMD Ryzen 5 8500G finds its niche only in extended instruction workloads. That single win indicates the Zen 4 architecture's strength in processing specialized instruction sets, potentially useful for certain encryption or vectorized code paths. Yet the database shows no other category where AMD closes the gap to within single digits. The Intel part leads data compression by 13.4%, data encryption by 23.4%, random string sorting by 24.9%, and multithread performance by 28.7%.

Architecture Differences

The two processors come from fundamentally different design philosophies. The AMD Ryzen 5 8500G uses the Zen 4 architecture with the Phoenix2 codename, built on TSMC's 4 nm process. It packs 20,900 million transistors into a 137 mm² die. The Intel Core i9-14901E uses the Raptor Lake architecture with the Raptor Lake-R codename, fabricated on Intel's 10 nm process, with a die size of 257 mm². Intel does not list a transistor count in the database.

Core counts differ meaningfully. AMD provides 6 cores and 12 threads, while Intel provides 8 cores and 16 threads. Cache hierarchies also diverge: AMD uses 64 KB of L1 per core, 1 MB of L2 per core, and 16 MB of shared L3. Intel uses 80 KB of L1 per core, 2 MB of L2 per core, and 36 MB of shared L3. The larger L3 cache on the Intel part, more than double the AMD's, likely contributes to its performance advantage in cache-sensitive workloads.

Both processors target different sockets. AMD uses Socket AM5, while Intel uses Socket 1700. Memory support also differs: AMD supports DDR5 only, with a dual-channel bus and a recorded bandwidth of 83.2 GB/s. Intel supports both DDR4 and DDR5, also dual-channel, but the database does not list a bandwidth figure for Intel. Both support ECC memory. PCIe connectivity shows a generational split: AMD provides PCIe Gen 4 with 14 lanes, while Intel provides PCIe Gen 5 with 16 lanes.

The integrated graphics differ as well. AMD includes the Radeon 740M, while Intel includes UHD Graphics 770. The AMD part is classified as a mobile segment processor, though it uses the desktop AM5 socket. Intel is classified as a desktop processor. Both have locked multipliers, meaning no overclocking through the clock multiplier. Release dates place AMD in January 2024 and Intel in June 2024. AMD lists a launch MSRP of $179, while Intel does not have a recorded launch MSRP. Both processors are currently marked as Active in production.

Specification Differences

| Specification | AMD Ryzen 5 8500G | Intel Core i9-14901E |

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

| Cores | 6 | 8 |

| Threads | 12 | 16 |

| Base clock | 3.50 GHz | 2.80 GHz |

| Boost clock | 5.00 GHz | 5.60 GHz |

| Socket | AMD Socket AM5 | Intel Socket 1700 |

| Process node | 4 nm | 10 nm |

| Foundry | TSMC | Intel |

| Die size | 137 mm² | 257 mm² |

| L1 cache | 64 KB per core | 80 KB per core |

| L2 cache | 1 MB per core | 2 MB per core |

| L3 cache | 16 MB shared | 36 MB shared |

| Memory support | DDR5 | DDR4, DDR5 |

| Memory bandwidth | 83.2 GB/s | Not listed |

| PCIe | Gen 4, 14 lanes | Gen 5, 16 lanes |

| Integrated graphics | Radeon 740M | UHD Graphics 770 |

| Market segment | Mobile | Desktop |

| Release date | 2024-01-07 | 2024-06-30 |

| Launch MSRP | $179 | Not listed |

| Transistors | 20,900 million | Not listed |

| Part number | 100-000001491 | Q49ESRNJH |

Head-to-Head Benchmarks

The Cinebench family shows a uniform pattern. In R15 multicore, Intel scores 2595 against AMD's 1851, a 28.7% lead. R15 single-core gives Intel 366 versus 261, again 28.7%. R20 multicore shows Intel at 10816 versus 7714, a 28.7% margin. R20 single-core is 1526 versus 1089, a 28.6% gap. R23 multicore delivers 25753 versus 18368, 28.7%. R23 single-core is 3635 versus 2593, also 28.7%. These consistent deltas indicate the Intel architecture maintains a stable performance ratio across both lightly threaded and fully threaded rendering workloads.

PassMark results vary more widely. Data compression shows Intel at 288777 versus 250197, a 13.4% advantage. Data encryption gives Intel 18571 versus 14220, a 23.4% lead. Extended instructions is the sole AMD win: 19098 versus 17249, with AMD ahead by 10.7%. Prime number finding is heavily lopsided: Intel scores 189, AMD scores 87, a 54% deficit for AMD. Floating point math shows Intel at 81089 versus 39074, a 51.8% lead. Integer math gives Intel 112736 versus 63123, a 44% gap. Multithread performance shows Intel at 30298 versus 21610, a 28.7% margin. Physics is the largest gap: Intel 3041, AMD 1318, a 56.7% difference. Random string sorting has Intel at 39138 versus 29407, a 24.9% lead. Single-thread tests, listed twice in the database with identical scores, show Intel at 4354 versus 3891, a 10.6% advantage.

The data suggests the Intel part benefits from its higher boost clock of 5.60 GHz versus AMD's 5.00 GHz, though Intel's base clock is lower at 2.80 GHz versus 3.50 GHz. The extra two cores and four threads on the Intel side also contribute to the multi-threaded margins. The larger L3 cache likely helps in workloads with repeated data access, such as compression and sorting. The AMD chip's one win in extended instructions may stem from Zen 4's newer instruction set implementation, despite the older process node advantage of 4 nm versus 10 nm.

The Verdict

The database clearly favors the Intel Core i9-14901E for almost all compute-intensive tasks. Its 86th percentile ranking versus AMD's 74th percentile reflects the substantial average score gap: 37911 versus 20425. The Intel part wins 16 of 17 head-to-head tests, with margins ranging from 10.6% in single-thread performance to 56.7% in physics simulation. Users running Cinebench-style rendering, PassMark math workloads, or data compression and encryption tasks should expect the Intel processor to deliver considerably higher throughput.

The AMD Ryzen 5 8500G holds a single advantage in extended instructions, where it leads by 10.7%. That makes it a narrow choice for specialized instruction-heavy code. The AMD chip also uses a smaller 4 nm process, a smaller die at 137 mm² versus 257 mm², and includes a Radeon 740M integrated GPU. It lists a launch MSRP of $179, while Intel's launch MSRP is not recorded. The AMD part supports only DDR5 memory, while Intel supports both DDR4 and DDR5. Intel provides PCIe Gen 5 with 16 lanes, while AMD provides Gen 4 with 14 lanes.

For buyers prioritizing raw multi-core and single-core performance, the Intel Core i9-14901E is the clear choice based on recorded data. For those with workloads that exercise extended instruction sets specifically, the AMD Ryzen 5 8500G offers a measurable edge. The Intel chip also carries a higher 86th percentile standing, indicating it outperforms a larger share of all CPUs in the database. The AMD chip's lower average score and lower percentile place it in a different performance tier entirely. The data does not support any scenario where AMD's single win compensates for the breadth of Intel's dominance across rendering, math, encryption, and physics benchmarks.