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The AMD EPYC 7F52 is a powerful processor based on the advanced Zen architecture, specifically designed for use in server environments. With a clock speed of 3.5 GHz and the ability to reach up to 3.9 GHz in Turbo mode, this processor delivers impressive performance for demanding applications. It features 16 cores and supports up to 32 threads, enabling efficient processing of multiple tasks simultaneously. The EPYC 7F52 supports DDR4 SDRAM with a maximum memory clock rate of 3200 MHz and a high memory bandwidth of up to 204.8 GB/s, making it ideal for data-intensive applications. With a 256 MB L3 cache and a maximum Thermal Design Power (TDP) of 240 watts, this processor is designed to operate stably even under heavy load. The EPYC 7F52 is therefore an excellent choice for companies seeking a reliable and powerful server solution.

- Based on Zen architecture for high performance
- Supports up to 32 threads for parallel processing
- Maximum memory bandwidth of 204.8 GB/s
- 256 MB L3 cache for improved data processing
- Compatible with the SP3 processor socket.

Actual product image AMD EPYC 7F52 (SP3, 3.50 GHz, 16 -Core)

Key specifications

Number of processor cores

A multi-core processor (or chip-level multiprocessor, CMP) combines two or more independent cores (normally a CPU) into a single package composed of a single integrated circuit (IC), called a die, or more dies packaged together. A dual-core processor contains two cores, and a quad-core processor contains four cores.

Number of threads

Max. TDP

The thermal design power (TDP), sometimes called thermal design point, refers to the maximum amount of power the cooling system in a computer is required to dissipate. For example, a laptop's CPU cooling system may be designed for a 20 watt TDP, which means that it can dissipate up to 20 watts of heat without exceeding the maximum junction temperature for the computer chip. It can do this using an active cooling method such as a fan or any of the three passive cooling methods, convection, thermal radiation or conduction. Typically, a combination of methods is used. The TDP is typically not the most power the chip could ever draw, such as by a power virus, but rather the maximum power that it would draw when running "real applications". This ensures the computer will be able to handle essentially all applications without exceeding its thermal envelope, or requiring a cooling system for the maximum theoretical power (which would cost more but in favor of extra headroom for processing power).

L3 Cache

Another issue is the fundamental tradeoff between cache latency and hit rate. Larger caches have better hit rates but longer latency. To address this tradeoff, many computers use multiple levels of cache, with small fast caches backed up by larger slower caches.

Multi-level caches generally operate by checking the smallest Level 1 (L1) cache first; if it hits, the processor proceeds at high speed. If the smaller cache misses, the next larger cache (L2) is checked, and so on, before external memory is checked.

As the latency difference between main memory and the fastest cache has become larger, some processors have begun to utilize as many as three levels of on-chip cache.

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