AMD EPYC 9654P 96-Core 2.4GHz CPU, 384MB L3 Cache, 360W TDP

Core Count

The AMD EPYC 9654P CPU is equipped with an impressive core count of 96, making it a powerhouse for demanding computational tasks. This high number of cores allows for efficient parallel processing, enabling users to handle heavy workloads with ease.

Improved Multitasking

With 96 cores at your disposal, you can experience exceptional multitasking capabilities. Whether you are running multiple virtual machines, processing large datasets, or performing complex simulations, the EPYC 9654P CPU can handle it all without compromising performance.

Enhanced Performance

The large number of cores allows for better utilization of system resources, resulting in improved overall performance. Each core can execute instructions independently, optimizing the use of available processing power and reducing bottlenecks.

Faster Data Processing

The EPYC 9654P CPU's 96 cores enable faster data processing by dividing tasks into smaller parts and executing them simultaneously. This parallel processing capability significantly reduces the time required to complete computationally intensive tasks, increasing productivity and efficiency.

Ideal for High-Performance Computing

High-performance computing (HPC) applications often require massive parallel processing capabilities. The EPYC 9654P CPU's 96 cores make it an ideal choice for HPC environments, where tasks such as scientific modeling, data analysis, and simulations can be executed at lightning speed.

Base Clock Speed

The AMD EPYC 9654P CPU features a base clock speed of 2.4GHz, providing a solid foundation for reliable and consistent performance. The base clock speed determines the frequency at which the processor operates under normal conditions without any turbo boost or overclocking.

Stability and Reliability

A higher base clock speed ensures stability and reliability during regular operations. The EPYC 9654P CPU's 2.4GHz base clock speed means that it can consistently deliver dependable performance without compromising system integrity.

Smooth Execution of Everyday Tasks

With a base clock speed of 2.4GHz, the EPYC 9654P CPU can handle everyday tasks such as web browsing, document editing, and multimedia playback with ease. The processor's responsiveness ensures smooth execution, minimizing lag or delays.

Optimized Power Consumption

The EPYC 9654P CPU's 2.4GHz base clock speed strikes a balance between performance and power consumption. It allows the processor to deliver adequate processing power while optimizing energy usage, resulting in improved efficiency and reduced electricity costs.

Compatibility with Existing Software

Many software applications are designed to work optimally with processors operating at certain clock speeds. The EPYC 9654P CPU's base clock speed of 2.4GHz ensures compatibility with a wide range of software, eliminating potential compatibility issues and ensuring seamless operation.

L3 Cache

The AMD EPYC 9654P CPU boasts an impressive L3 cache size of 384MB, offering significant benefits in terms of data access and overall system performance. The L3 cache acts as a buffer between the processor cores and the main memory, storing frequently accessed data for quick retrieval.

Faster Data Access

The large L3 cache size enables faster data access, reducing the time taken to retrieve information from the main memory. This results in improved overall system performance, as the processor can quickly access frequently used data without having to wait for it to be fetched from the main memory.

Reduced Memory Latency

By storing frequently accessed data closer to the processor cores, the L3 cache reduces memory latency. Latency refers to the time taken for the processor to retrieve data from the main memory. The EPYC 9654P CPU's substantial L3 cache helps minimize latency, resulting in faster data processing and improved system responsiveness.

Enhanced Program Execution

The large L3 cache size allows for more instructions and data to be stored closer to the processor cores, enhancing program execution. This enables the EPYC 9654P CPU to execute instructions more quickly, improving application performance and reducing processing time.

Optimized Virtualization Performance

Virtualized environments often involve running multiple virtual machines simultaneously. The EPYC 9654P CPU's sizable L3 cache facilitates efficient virtual machine management by providing quick access to frequently used virtual machine data, resulting in optimized virtualization performance.

TDP

The AMD EPYC 9654P CPU features a TDP (Thermal Design Power) of 360W, highlighting its ability to handle heavy workloads while maintaining optimal operating temperatures. TDP refers to the maximum amount of heat generated by a processor that must be dissipated by the cooling system.

Efficient Heat Management

The EPYC 9654P CPU's TDP of 360W indicates that it is designed to efficiently manage heat dissipation, ensuring stable and reliable operation even under demanding conditions. The processor's cooling system can effectively dissipate the generated heat, preventing overheating and potential performance degradation.

Sustained Performance for Intensive Tasks

A high TDP enables the EPYC 9654P CPU to sustain performance during intensive tasks that generate significant heat. The processor's robust cooling capabilities allow it to operate at full potential without throttling, ensuring consistent performance for extended periods.

Extended Lifespan

Efficient heat management provided by the EPYC 9654P CPU's 360W TDP contributes to an extended lifespan. By keeping operating temperatures within optimal ranges, the processor experiences less thermal stress, resulting in increased longevity and reliability.

Support for Demanding Workloads

The EPYC 9654P CPU's high TDP makes it suitable for handling demanding workloads that require sustained processing power. Whether you are rendering complex graphics, running resource-intensive applications, or performing data analysis, the processor's ability to handle heavy workloads ensures smooth operation without compromising performance.