Processor AMD EPYC 9554P 3.1 GHz 256 MB L3 Socket SP5

Processor AMD EPYC 9554P 3.1 GHz with 256 MB L3 cache is a server-class CPU designed for modern data centers and demanding enterprise workloads. The EPYC 9554P supports Socket SP5 platforms and dodeca-channel DDR5 memory up to 4800 MHz, delivering high core counts and balanced memory throughput for virtualization, databases, and high-performance computing.

Advantages

The AMD EPYC 9554P provides 64 cores and a 3.1 GHz base frequency with up to 3.75 GHz boost, large 256 MB L3 cache, and support for high-bandwidth DDR5 memory. Built-in AMD Infinity Guard features help reduce attack surfaces during boot and runtime, while AMD Infinity Architecture offers unified intelligence for improved efficiency and time-to-results in business-critical applications. Socket SP5 compatibility simplifies integration into modern server systems.

Suitable for

• Virtualization hosts and hyperconverged infrastructure
• Large databases and in-memory analytics
• High-performance computing (HPC) and scientific workloads
• Enterprise applications and cloud service nodes

Key specifications

• Model: AMD EPYC 9554P
• Cores: 64
• Base frequency: 3.1 GHz; Boost up to 3.75 GHz
• Cache: 256 MB L3
• Memory: Dodeca-channel DDR5, up to 4800 MHz
• Socket: SP5
• On-board graphics: Not available

How to use

Install the AMD EPYC 9554P into a compatible Socket SP5 motherboard following the server vendor’s hardware installation guide and proper electrostatic discharge (ESD) precautions. Configure memory modules to take advantage of the dodeca-channel topology and set BIOS/firmware options recommended for enterprise workloads. Use supported operating systems and hypervisors and apply the latest microcode and firmware updates for optimal performance and security.

Recommendations

For best results, deploy the EPYC 9554P in rack or chassis platforms designed for SP5, ensure adequate cooling and power delivery, and follow vendor guidelines for BIOS tuning and firmware updates. Consider workload-aware placement to utilize the processor’s high core count and memory bandwidth effectively.