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Processors compared by cores, clocks, platform, efficiency, benchmarks, and target builds.
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Models with known release dates, newest first.
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The Apple M4 is a System on a Chip (SoC) featuring a 10-core CPU (4 performance cores, 6 efficiency cores) and a 10-core GPU with hardware-accelerated ray tracing. Built on TSMC's second-generation 3nm technology, it...
6 listed key facts
The Apple M4 Pro, built on a second-generation 3nm process, features a 14-core CPU (10 performance, 4 efficiency) and a 20-core GPU. It introduces enhanced hardware-accelerated ray tracing and a significantly upgraded...
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The flagship of the EPYC 4004 series, the 4564P brings high-frequency Zen 4 performance to the AM5 entry-server platform, optimized for web hosting and small business workloads.
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The AMD EPYC 8534P is a flagship 64-core processor from the EPYC 8004 'Siena' series. Built on the Zen 4c architecture, it is optimized for energy efficiency, high density, and edge computing environments, offering a...
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Choose EPYC 9016 for small dedicated services and low-core-count licensing plans. Its eight cores, 48 MB L3 and 130 W power reference still require an SP8 server platform. Compare the 16-core 9116 when the deployment...
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Choose EPYC 9116 for small 16-core virtualized business servers. The 160 W processor reference and 48 MB L3 suit a restrained entry build. Compare 9176F when the application genuinely benefits from a larger cache and...
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Choose EPYC 9176F for per-core-licensed services that emphasize frequency and cache. This 16-core SP8 part has a 3.9 GHz base and 192 MB L3, with a 200 W power reference. Compare 9116 when lower power and simpler work...
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Choose EPYC 9256 for 24-core business services with a modest processor budget. Its 190 W power reference and 96 MB L3 provide a lower-clock alternative to 9276F. Allocate RAM by the actual VM or database working set r...
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Choose EPYC 9276F for 24-core frequency-sensitive licensed applications. The 3.8 GHz base and up-to-5 GHz boost are the attraction, with a 230 W default power reference. Compare the 190 W 9256 when those higher clocks...
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Choose EPYC 9336 for moderate-size 32-core virtualized services. The 195 W default CPU power lowers the processor reference versus 9356, with 128 MB rather than 192 MB L3. Weigh cache capacity and published clocks aga...
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A high-performance server processor part of the 4th Gen AMD EPYC family, featuring 32 cores based on the Zen 4 microarchitecture. It supports 12-channel DDR5 memory and 128 lanes of PCIe 5.0, designed for intensive en...
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Choose EPYC 9356 for 32-core databases and mixed business workloads. The 192 MB L3 and 3.6 GHz base are useful shortlist criteria. Its 250 W power reference is above the 195 W 9336, so choose according to cache needs...
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Choose EPYC 9356P for single-socket 32-core databases and VMs. It pairs 192 MB L3 with a 250 W power reference. Buy the non-P 9356 when two-socket capability is needed; a P part does not provide that upgrade path.
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Choose EPYC 9376F for 32-core applications that value high clocks and cache. Its 3.8 GHz base and 192 MB L3 require a 285 W processor budget. Compare 9356 for the same core/cache counts at a 250 W power reference and...
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Choose EPYC 9456 for 48-core business servers and virtualization. Its 256 MB L3 and 265 W default CPU power fit an eight-channel SP8 build. Compare 9456P for single-socket-only systems and 9476F for a higher-frequency...
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Choose EPYC 9456P for single-socket 48-core business deployments. It retains 256 MB L3 at a 265 W default power reference. The single-socket restriction is the key purchase constraint; use 9456 for a two-socket system.
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Choose EPYC 9476F for 48-core services with frequency-sensitive processing. The 3.65 GHz base and up-to-5 GHz boost need a 330 W processor budget. Compare the 265 W 9456 for mixed workloads where that frequency premiu...
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Choose EPYC 9526 for 64-core servers with a restrained power budget. At 220 W default CPU power, it offers a lower power reference than the 300 W 9536. Check application frequency needs and memory population before ch...
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Choose EPYC 9536 for balanced 64-core VM and database servers. The 3.25 GHz base and 256 MB L3 pair with a 300 W power reference. The 220 W 9526 is worth comparing when rack power matters more than higher published cl...
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Choose EPYC 9536P for 64-core single-socket virtualization and databases. The 300 W part keeps 256 MB L3 but supports only one socket. Choose 9536 when a dual-socket board or expansion path is required.
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A high-performance 64-core server processor from the EPYC 9005 series 'Turin' lineup, featuring the Zen 5 architecture with significant IPC gains and AVX-512 optimizations for data center and AI workloads.
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Choose EPYC 9556 for 64-core virtualization or analytics on SP7. The 300 W power reference and 16 memory channels make it worth considering when channel count matters more than the 9586F’s higher clocks. SP7 and SP8 m...
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A high-performance server processor part of the 5th Gen EPYC 'Turin' lineup. Featuring 72 Zen 5 cores, it is optimized for high-density cloud computing, AI-enabled workloads, and enterprise data centers, offering sign...
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Choose EPYC 9576F for 64-core latency-sensitive services on SP8. Its 3.55 GHz base, up-to-5 GHz boost and 384 MB L3 target a frequency-led choice. Compare the 300 W 9536 before committing to this model’s 400 W process...
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