Intel Xeon Gold 5317

Intel Xeon Gold 5317 is a 12-core, 24-thread Ice Lake-SP server/workstation processor from Intel, released on 2021-04-05 and still in Active production. It runs on Intel Socket 4189 at a 3.00 GHz base clock and 3.60 GHz boost clock, with a 150 W TDP. The 10 nm process node and Ice Lake-SP architecture define the underlying design. The database gives it an average benchmark score of 6748 and a percentile rank of 66 among all CPUs. Its nearest rivals are tightly grouped around that average, with aggregate scores from 6711 to 6776. The cache hierarchy is 64 KB L1 per core, 1 MB L2 per core, and 18 MB shared L3, which is the on-die structure for the multi-threaded workload.

How It Compares

The closest rival is AMD Ryzen Threadripper 2970WX, with an average score of 6760. The 5317’s delta is -0.2%, meaning the Xeon is marginally behind in aggregate. The gap is tiny, so the two parts should trade positions across different benchmark mixes. The data does not suggest a decisive advantage in the overall average.

The next rival is Intel Core i7-14701TE, averaging 6765. The 5317 is 0.3% behind. This is the second smallest negative delta in the set. As with the Threadripper, the aggregate difference is within a small margin. The 5317’s server platform features, such as eight-channel DDR4 and 64 PCIe Gen 4 lanes, do not appear in the average benchmark score, so system-level comparisons should include those factors.

The Intel Xeon Gold 6154 has the highest average among the listed nearest rivals at 6776. The 5317 is 0.4% behind it. This is the largest negative delta in the group. Both are Xeon processors, but the 5317 is from the Ice Lake-SP generation and uses the Intel Socket 4189 platform.

The only rival that the 5317 leads is Intel Xeon D-2775TE, whose average score is 6711. The delta is +0.5%. This is the smallest average in the nearest-rival group. The direction change shows that the 5317 sits not at the top of its immediate cluster but in the middle, with three rivals above and one below.

Power and Thermals

The 5317 is rated at 150 W TDP. That is the thermal design power rating for this processor and the primary number for cooling selection. A 12-core Ice Lake-SP die with a 3.00 GHz base and 3.60 GHz boost, on Intel’s 10 nm process, fits into a moderate server-class thermal envelope. This implies an active heatsink of the type used in rack servers, or a capable tower cooler for a workstation. The socket is Intel Socket 4189, which pairs with server motherboards designed for Xeon Gold parts. ECC memory support is present, and the eight-channel DDR4 interface at 187.7 GB/s can populate a system with many memory modules; a fully loaded memory subsystem adds heat beyond the processor’s 150 W TDP. Since the multiplier is locked, there is no overclocking thermal headroom to plan for. The processor’s stock boost ceiling of 3.60 GHz determines the maximum single-core power state, while the 3.00 GHz base clock defines sustained all-core operation.

Benchmark Performance

Benchmark results cover three Cinebench generations. The multi-core scores are 2351 in R15, 9798 in R20, and 23330 in R23. The single-core scores are 331, 1383, and 3293 in the same order. The aggregate benchmark score is 6748. The nearest rival deltas are -0.2% versus the AMD Ryzen Threadripper 2970WX, -0.3% versus the Intel Core i7-14701TE, -0.4% versus the Intel Xeon Gold 6154, and +0.5% versus the Intel Xeon D-2775TE. The percentile rank of 66 places the processor above the median in the all-CPU database.

R23 multi-core is the most demanding listed workload. The 23330 result indicates the 5317 can sustain heavily threaded throughput. R20 multi-core, at 9798, and R15 multi-core, at 2351, are consistent. The single-core results are also consistent, with 3293 in R23, 1383 in R20, and 331 in R15. The relationship between these numbers is what gives the processor its profile: much of the aggregate score comes from multi-core execution. The cache hierarchy, with 64 KB L1 per core, 1 MB L2 per core, and 18 MB shared L3, supports this threaded workload. The aggregate score of 6748 is the database’s combined metric, while the individual Cinebench scores show generation-by-generation behavior.

Who Should Consider It

This processor targets server and workstation workloads that can exploit 12 cores and 24 threads. In rendering, the R23 multi-core score of 23330 and R20 multi-core score of 9798 show strong throughput. Batch workloads that scale with thread count will behave similarly. The 18 MB shared L3 cache reduces cross-core memory traffic for parallel data sets. The eight-channel DDR4 interface at 187.7 GB/s is a major asset for workloads that stream large amounts of data. The CPU also exposes 64 PCIe Gen 4 lanes (CPU only), which is useful for systems with multiple accelerators or storage controllers. ECC memory support is included, which matters for data integrity in long-running server workloads. The production status is Active, so the part remains a current option. For general office productivity, the single-core scores are adequate but not the reason to choose this processor. Gaming is not the intended use case; the market segment is Server/Workstation, and the 3.60 GHz boost clock is not a gaming-oriented frequency.

Single-Thread vs Multi-Thread Behavior

The contrast between single-thread and multi-thread scores is the defining behavioral pattern. In R23, the multi-core result of 23330 is much higher than the single-core result of 3293. In R20, the multi-core score is 9798 versus 1383 single-core. In R15, the multi-core score is 2351 versus 331 single-core. This is exactly what a 12-core/24-thread processor should show: the single-thread score sets the per-core baseline, and the multi-thread score demonstrates that all cores can contribute.

Real workloads divide along this line. A rendering job that can split a frame into 24 tasks will scale toward the multi-thread score. An office application that uses one or two threads will stay near the single-thread score. The 3.00 GHz base clock represents the sustained frequency when all cores are loaded; the 3.60 GHz boost clock is the maximum for lightly loaded operation. Because the multiplier is locked, the user cannot push beyond 3.60 GHz. For mixed workloads, the 24 threads can handle background processes while a foreground single-thread task runs, but the foreground task will still be capped by the boost clock. The cache layout also matters: 64 KB L1 per core and 1 MB L2 per core give each thread local storage, while the 18 MB shared L3 lets threads exchange data without leaving the die. The single-thread scores are the floor for interactive responsiveness; the multi-thread scores are the ceiling for parallel throughput. Between those two, the scheduler has 24 threads to distribute work across, which is the core behavioral advantage of this processor.