100-000001476WOF AMD EPYC 4564P 16 Core 4.5GHz Processor

Comprehensive Product Description

Product Overview

• Product Type: Server Processor
• Product Manufacturer: Advanced Micro Devices Inc. (AMD)
• Series: AMD EPYC 4004 Series
• Product Model: EPYC 4564P
• Manufacturer Part Number (MPN): 100-000001476WOF
• Form Factor: Designed for enterprise and modern datacenter servers

Technical Information

• CPU Cores: 16-core architecture optimized for parallel workloads
• Threads: 32 threads for enhanced multitasking and virtualization
• Base Clock Speed: 4.5 GHz
• Maximum Boost Clock: Up to 5.7 GHz for high-performance bursts
• L3 Cache: 64 MB for fast data access
• Default TDP: 170W
• CPU Socket: AM5
• Socket Count: 1P (Single-Socket configuration)
• PCI Express® Version: PCIe® 5.0 ×28 lanes for high-speed connectivity
• System Memory Type: DDR5
• Memory Channels: 2-channel support
• Maximum Memory Speed: Up to 5200 MT/s
• Key Features: AMD Infinity Guard
• Supported Technologies: AMD Infinity Architecture

Performance and Clock Speeds

Efficient Multi-Core Design

• High Core Count: 16 cores designed for enterprise-grade performance
• Simultaneous Multithreading: 32 threads to maximize parallel execution
• Adaptive Clocking: Base 4.5 GHz, boost up to 5.7 GHz for demanding tasks

Cache and Memory Optimization

• Large L3 Cache: 64 MB improves access speed to frequently used data
• Memory Bandwidth: DDR5 memory with dual-channel configuration
• Maximum Transfer Rate: Up to 5200 MT/s ensuring smooth high-speed operations

Connectivity and Expansion

• Socket Type: AM5 for modern server boards
• PCIe Lanes: 28 PCIe 5.0 lanes enabling fast I/O and accelerator support

Advanced Security and Architecture

• AMD Infinity Guard: Enterprise-level security for sensitive workloads
• AMD Infinity Architecture: Flexible, scalable platform supporting demanding applications

AMD EPYC 4564P 16-Core 4.5GHz Processor: High-Frequency Performance for Modern Server Workloads

The AMD 100-000001476WOF EPYC 4564P 16-Core 4.5GHz Processor is a standout offering in AMD’s EPYC 4004 series, engineered for high-frequency, single-socket server environments. Built on the Zen 4 architecture and manufactured using advanced 5nm process technology, this processor delivers exceptional performance for latency-sensitive workloads, edge computing, virtualization, and enterprise applications. With 16 cores and 32 threads, the EPYC 4564P is optimized for environments where speed, responsiveness, and efficiency are paramount.

Zen 4 Architecture: Precision and Efficiency

Microarchitecture Enhancements

The Zen 4 architecture brings significant improvements in IPC (instructions per cycle), branch prediction, and execution throughput. These enhancements allow the EPYC 4564P to deliver faster single-threaded and multi-threaded performance, making it ideal for workloads that require both high frequency and parallelism. The architecture also supports AVX-512 instructions, improving performance in scientific computing, AI inference, and data analytics.

Core and Thread Configuration

With 16 physical cores and support for simultaneous multithreading (SMT), the EPYC 4564P offers 32 threads of compute power. This configuration is well-suited for multitasking, virtual machines, and containerized applications that require concurrency and speed. The processor’s core layout ensures efficient thread scheduling and minimal contention, even under heavy load.

Base and Boost Clock Speeds

Operating at a base frequency of 4.5GHz, the EPYC 4564P is one of the highest-clocked server processors available. This high base clock ensures consistent performance across workloads, while boost capabilities allow the processor to dynamically increase frequency under load, delivering peak responsiveness for latency-sensitive applications such as financial modeling and real-time analytics.

Cache Architecture and Data Access

Optimized Cache Hierarchy

The EPYC 4564P features a robust cache system designed to accelerate data access and reduce latency. Each core includes 1MB of L2 cache, and the processor offers a shared 64MB L3 cache. This cache configuration enhances performance in database operations, web services, and real-time telemetry by ensuring rapid retrieval of frequently accessed data.

Cache Distribution and Efficiency

The hierarchical cache design includes dedicated L1 and L2 caches per core, with the L3 cache shared across core complexes. This structure minimizes bottlenecks and supports high-throughput computing, especially in multi-threaded environments where cache contention can impact performance.

Memory Support and Bandwidth

DDR5 Memory Compatibility

The EPYC 4564P supports DDR5 memory, offering higher bandwidth and improved power efficiency compared to DDR4. With support for dual-channel memory configurations, the processor delivers fast and reliable access to system memory, which is essential for workloads involving large datasets and real-time processing.

Maximum Memory Capacity

This processor supports up to 1TB of DDR5 ECC memory, enabling robust performance for enterprise applications, virtualization platforms, and edge deployments. ECC (Error-Correcting Code) memory ensures data integrity and system stability, which are critical in mission-critical environments.

Memory Speed and Latency

With support for DDR5-5200 modules, the EPYC 4564P achieves high memory transfer rates while maintaining low latency. This configuration is ideal for latency-sensitive applications such as high-frequency trading, financial modeling, and real-time telemetry.

Single-Socket Optimization

Cost-Effective Server Deployment

The EPYC 4564P is optimized for single-socket systems, offering high performance without the complexity of dual-socket configurations. This reduces hardware costs, simplifies system design, and lowers power consumption, making it an ideal choice for small to medium-sized enterprises and edge computing environments.

Infrastructure Simplification

By consolidating compute resources into a single socket, organizations can streamline server deployment and maintenance. This leads to reduced capital expenditure and operational overhead, while still delivering robust performance for demanding workloads.

Energy Efficiency and Thermal Management

5nm Process Technology

Manufactured using TSMC’s 5nm process node, the EPYC 4564P achieves high transistor density and improved power efficiency. This contributes to lower thermal output and reduced energy consumption, aligning with sustainability goals and green data center initiatives.

Thermal Design Power (TDP)

With a TDP of 130W, the EPYC 4564P offers a balanced power profile suitable for compact server environments. Advanced thermal management features ensure stable operation under sustained workloads, supporting both air and liquid cooling solutions.

Power Management Technologies

The processor includes dynamic voltage and frequency scaling (DVFS), enabling it to adjust power usage based on workload demands. This minimizes energy waste during idle periods and maximizes performance during peak usage.

Security and Reliability Features

AMD Infinity Guard

The EPYC 4564P incorporates AMD Infinity Guard, a comprehensive suite of security features designed to protect data, isolate workloads, and ensure system integrity. Key components include Secure Memory Encryption (SME), Secure Encrypted Virtualization (SEV), and Secure Boot.

Secure Memory Encryption (SME)

SME encrypts system memory to prevent unauthorized access, even in the event of physical memory compromise. This is essential for protecting sensitive data in multi-tenant and cloud environments.

Secure Encrypted Virtualization (SEV)

SEV enables encrypted virtual machines, ensuring that guest VMs remain isolated and protected from hypervisor-level threats. This enhances trust and compliance in virtualized infrastructures.

PCIe 5.0 and I/O Expansion

High-Speed Connectivity

The EPYC 4564P supports PCIe 5.0, enabling faster communication with GPUs, NVMe storage devices, and high-speed networking cards. This is essential for modern workloads that require rapid data access and transfer, such as AI model training and big data analytics.

Expansion Capabilities

With up to 28 PCIe lanes, the processor offers scalable I/O expansion options. This allows for flexible server configurations with multiple accelerators, storage arrays, and network interfaces, supporting diverse enterprise and edge applications.

Use Cases and Application Scenarios

Edge Computing

The EPYC 4564P is ideal for edge deployments where space, power, and latency are critical. Its high-frequency performance and energy efficiency make it suitable for real-time data processing, industrial automation, and IoT gateway applications.

Enterprise Virtualization

With support for large memory capacities and advanced virtualization features, the processor enables high VM density and efficient resource allocation. This reduces operational costs and enhances scalability for enterprise IT infrastructures.

High-Performance Computing (HPC)

Scientific research, engineering simulations, and AI model training benefit from the parallel processing capabilities of the EPYC 4564P. Its architecture supports floating-point operations and large datasets, making it suitable for HPC clusters and research institutions.

Data Analytics and Machine Learning

The processor’s high core frequency and memory bandwidth support real-time data analytics and machine learning workloads. It enables rapid processing of large datasets, accelerating insights and decision-making in data-driven organizations.

Platform Compatibility and Ecosystem

Socket AM5 and Motherboard Support

The EPYC 4564P utilizes the AM5 socket, compatible with a growing ecosystem of server motherboards. This ensures flexibility in system design and integration, whether for rack-mounted servers, compact edge systems, or custom builds.

OEM and ISV Certification

AMD partners with leading OEMs and independent software vendors (ISVs) to certify the EPYC 4564P for enterprise applications. This ensures compatibility with popular software stacks and simplifies deployment in production environments.