Intel Xeon 6952P

Benchmark Performance

The Intel Xeon 6952P is a data-center processor with no direct benchmark scores recorded in the database, and its average benchmark score is listed as zero. This places it at the 50th percentile against all CPUs in the database, a neutral position that reflects the absence of measured performance data rather than an actual performance level. Without benchmark entries, the analysis must rely on architectural specifications and the inherent capabilities of the platform.

The processor’s core configuration is the primary indicator of performance: it contains 96 cores and 192 threads, operating with a base clock of 2.10 GHz and a boost clock of 3.90 GHz. This combination suggests a design optimized for parallel workloads where thread count matters more than raw single-core speed. The 480 MB of shared L3 cache is substantial, indicating strong data locality potential for large working sets, while the 2 MB L2 cache per core and 112 KB L1 cache per core are standard for a modern server architecture.

There are no nearest rivals listed in the database, and no deltaPct values exist to compare against other processors. Consequently, the benchmark section cannot provide relative percentage differences or rankings. The data shows that this CPU has not yet been subjected to the standardized testing used by this database, leaving its score-based positioning undefined. What can be stated is that the architectural parameters—96 cores, 192 threads, and a 480 MB L3 cache—place it in the high-end server segment, where multi-threaded throughput is the dominant metric.

Who Should Consider It

Workloads that scale with core count and memory bandwidth are the natural fit for this processor. The 96-core, 192-thread configuration is suited for heavily parallelized server tasks such as large-scale virtualization, database transaction processing, and scientific computing. The twelve-channel DDR5 memory bus with 614.4 GB/s of bandwidth supports memory-intensive applications that require simultaneous access to vast datasets, such as in-memory analytics or high-performance computing simulations.

For gaming, this processor is not a reasonable choice. Gaming workloads typically rely on a few high-frequency cores, and while the 3.90 GHz boost clock is respectable, the sheer core count and server-oriented design do not align with gaming performance priorities. The data shows no integrated graphics, so a discrete GPU is mandatory, but the platform’s server focus means gaming-specific optimizations are unlikely to be a priority.

Content creation workloads that benefit from multi-core rendering or video encoding could leverage this CPU effectively, provided the software is optimized for high thread counts. Office productivity and general desktop use are poor matches—the power envelope and platform requirements are disproportionate to the modest demands of such tasks. The processor targets data centers and workstation deployments where sustained, parallel computation is the norm, not interactive or latency-sensitive environments.

Platform and Compatibility

The processor uses the Intel Socket 7529 platform, a server-grade socket designed for the Xeon 6 family based on the Granite Rapids architecture. The architecture is built on Intel’s 5 nm process node, with a die size of 3x 598 mm², indicating a multi-die design that contributes to the high core count and large cache. The production status is listed as Active, and the release date is 2024-09-23, making it a current-generation product.

Memory support is DDR5, with a twelve-channel memory bus that yields a theoretical memory bandwidth of 614.4 GB/s. ECC memory is supported, which is critical for server reliability and error correction in long-running computations. The PCIe interface is Gen 5 with 96 lanes available from the CPU, providing ample connectivity for high-speed storage devices, network adapters, and accelerators.

The upgrade path is constrained to the Intel Socket 7529 platform, meaning that board compatibility is limited to server motherboards designed for Granite Rapids-AP processors. The multiplier is not unlocked, so overclocking is not an option; performance tuning would rely on platform-level settings such as memory configuration and power management. The part number is SRQ6QQ5TS, and the processor is not equipped with integrated graphics, requiring an external GPU for display output or compute offload.

FAQ

Q: What is the core and thread count of the Intel Xeon 6952P?

A: The processor has 96 cores and 192 threads, with a base clock of 2.10 GHz and a boost clock of 3.90 GHz.

Q: What memory type and bandwidth does this processor support?

A: It supports DDR5 memory with a twelve-channel memory bus, providing a memory bandwidth of 614.4 GB/s. ECC memory is supported.

Q: What socket does the Intel Xeon 6952P use?

A: It uses the Intel Socket 7529, which is designed for the Granite Rapids-AP server platform.

Q: Is the processor overclockable?

A: No, the multiplier is locked (multiplierUnlocked is false), so the clock speeds are fixed to the specified base and boost values.

Q: Does the processor include integrated graphics?

A: No, there is no integrated graphics, so a separate GPU is required for display or compute purposes.

Q: What is the L3 cache size?

A: The processor has 480 MB of shared L3 cache, along with 2 MB of L2 cache per core and 112 KB of L1 cache per core.

Power and Thermals

The thermal design power (TDP) is 400 watts, which classifies this processor in the high-power server tier. This TDP figure indicates that the cooling solution must be robust—typically a high-end server heatsink or liquid cooling system capable of dissipating 400W of continuous heat. Air cooling in the traditional desktop sense is inadequate; the platform requires server-grade thermal management to maintain sustained boost clocks under load.

The 400W TDP aligns with the processor’s 96-core architecture and 3.90 GHz boost clock, as the power draw scales with active cores and frequency. The data shows no specific thermal solution, but the implication is that the chassis and cooling infrastructure must be designed for data-center environments where power density is expected. The 5 nm process node helps mitigate power consumption relative to older nodes, but the sheer core count still demands significant power delivery and cooling capacity.

For comparison purposes, the TDP is a fixed specification, not a measured value, and it represents the maximum power the processor is expected to draw under typical sustained workloads. Users must ensure that the motherboard’s voltage regulator module (VRM) can supply sufficient current and that the cooling system can handle the thermal load without throttling. In practice, this means a server chassis with high-static-pressure fans or liquid cooling loops designed for 400W-class CPUs.

Single-Thread vs Multi-Thread Behavior

The single-thread capability of the Intel Xeon 6952P is defined by its boost clock of 3.90 GHz, which is moderate for a server processor. The architecture prioritizes core count over per-core frequency, and the base clock of 2.10 GHz suggests that sustained single-thread performance is not the primary design goal. Applications that rely on a single thread, such as legacy software or lightly threaded tasks, will see performance limited by the 3.90 GHz boost ceiling, which is lower than many desktop processors but adequate for server workloads.

Multi-thread behavior is where this processor excels. With 192 threads, the CPU can handle massive parallel workloads, and the 480 MB L3 cache ensures that data sharing between cores is efficient. The twelve-channel memory bus with 614.4 GB/s bandwidth prevents memory starvation when all cores are active, a critical factor for scaling performance in multi-threaded applications. The data suggests that the processor is designed to maintain high throughput across all cores simultaneously, rather than boosting a few cores to extreme frequencies.

In real-world terms, single-thread-limited tasks will not see the full potential of this CPU, while multi-threaded workloads—such as rendering, scientific simulations, and database queries—will benefit from the high core count and memory bandwidth. The split between single-thread and multi-thread behavior is stark: the processor is a multi-thread monster with modest single-thread capability, making it unsuitable for tasks that cannot leverage parallel execution.

How It Compares

The database lists no nearest rivals for this processor, so a direct comparison against other CPUs is not possible based on the available data. This absence of rival scores and deltaPct values means that the relative performance positioning cannot be quantified. The processor’s 50th percentile rank against all CPUs is a placeholder, not a meaningful comparison, as it is derived from an average benchmark score of zero.

Without rival data, the analysis must rely on the architectural specifications to infer positioning. The 96-core, 192-thread configuration places it in the same class as other high-end server processors, but no specific competitor names, scores, or percentage differences are available. The 400W TDP and twelve-channel memory support are consistent with flagship server parts, but the lack of benchmark entries prevents any definitive ranking.

In the absence of measured scores, the processor’s value proposition rests on its specifications: 96 cores, 480 MB L3 cache, and 614.4 GB/s memory bandwidth. These figures indicate a top-tier server processor, but the database cannot confirm its standing relative to rivals until benchmark data is recorded. The verdict is that this is a high-performance server CPU by design, but its exact competitive position remains unverified in the current dataset.