The Intel Xeon 6369P is built on a 10nm semiconductor process and operates within a Thermal Design Power of 95W, with a maximum rated CPU temperature of 100°C. It supports the 64-bit instruction set and connects to the platform via PCIe 5, which carries a bus transfer rate suited to high-throughput enterprise environments. The processor does not include integrated graphics, making it reliant on a discrete GPU for any display output.
The processor runs eight cores at a base speed of 3.3GHz each, supporting 16 threads in total, and can reach a turbo clock speed of 5.7GHz through Turbo Boost version 2. The clock multiplier is set at 33 and is not unlocked, meaning frequency adjustments outside of standard boost behavior are not supported. Cache is organized across three levels: 640KB of L1, 16MB of L2 at 2MB per core, and 24MB of L3 at 3MB per core, providing a layered structure intended to reduce memory latency during sustained workloads.
The Intel Xeon 6369P uses DDR5 memory, with a maximum supported speed of 4800MHz across two memory channels, and can address up to 128GB of RAM in total. Peak memory bandwidth reaches 76.8GB/s, and the bus transfer rate is rated at 16GT/s. ECC memory support is included, allowing the system to detect and correct single-bit errors — a practical requirement for enterprise and server deployments where data reliability is non-negotiable.
The processor supports multithreading, allowing each physical core to handle two threads simultaneously for more efficient utilization under concurrent workloads. Its instruction set support covers a broad range including MMX, F16C, FMA3, AES, AVX, AVX2, SSE 4.1, and SSE 4.2, enabling hardware-level acceleration for tasks such as floating-point math, encryption, and vectorized operations. The chip also includes the NX bit, a hardware security feature that helps prevent certain classes of malicious code from executing in memory regions designated as non-executable.
In PassMark testing, the Intel Xeon 6369P achieves a multi-core score of 29,680, reflecting its throughput across all active cores and threads under parallel workloads. Its single-core PassMark result of 4,322 indicates the per-core performance level, which is relevant for tasks that depend on single-threaded execution speed rather than parallelism.