AMD EPYC 9455P 3.15 GHz 48 Core Processor, 48C/96T, 256M Cache (300W) DDR5-6400

The AMD EPYC™ 9455P is a single-socket optimized server processor in the EPYC 9005 Series, designed to deliver exceptional compute density, high clock speeds, and energy-efficient performance. Featuring 48 cores and 96 threads, it is ideal for organizations that need robust performance in a cost-effective, streamlined single-socket platform, making it a strong choice for cloud, enterprise, and virtualization environments.

Key Features

• Single-Socket Focused: Optimized for 1P platforms, providing enterprise-class performance while reducing system complexity and cost.

• Balanced Compute Power: 48 cores / 96 threads for excellent multi-threaded throughput across diverse workloads.

• High Operating Frequencies: 3.15 GHz base clock, with all-core boost up to 3.65 GHz, and peak boost speeds up to 4.0 GHz for responsive performance.

• Large Cache Architecture: 256MB of L3 cache delivers fast data access and lowers latency for complex applications.

• High Memory Bandwidth: 12-channel DDR5 support with speeds up to 6400 MT/s, enabling 614 GB/s bandwidth per socket.

• Scalable I/O: 128 PCIe® 5.0 lanes allow integration with GPUs, accelerators, and high-speed NVMe storage.

• Power-Optimized Design: Default 300W TDP, configurable between 240–300W, for workload-specific performance-per-watt efficiency.

• SP5 Platform Ready: Compatible with SP5 socket servers, ensuring reliability and future scalability.

Applications

• Cloud & Virtualization: Provides high VM density in a cost-effective, single-socket deployment model.

• Enterprise Workloads: Optimized for databases, ERP, CRM, and analytics systems requiring both speed and efficiency.

• AI & Machine Learning: Supports inference and model training workloads with strong parallel compute capability.

• HPC & Research Computing: Delivers efficient compute power for simulations, modeling, and advanced research tasks.

• Energy-Conscious Data Centers: Ideal for organizations seeking lower power consumption while maintaining strong compute output.