AMD 100-000000049E EPYC 7302P Server Processor

Overview

The AMD 100-000000049E is an EPYC 7302P server processor built on a 5-core CCD architecture that delivers 192 processor cores and 384 threads across two-socket or single-socket configurations. With a base frequency of 2.25 GHz and maximum boost to 3.70 GHz, this processor is engineered for workloads demanding sustained multi-threaded performance — from large-scale inference pipelines to real-time video transcoding across dozens of concurrent streams. The 500W thermal design power (TDP) positions it for deployment in standard enterprise data centers without exotic cooling requirements.

Key Features

• 192 Processor Cores / 384 Threads: Enables parallel processing of 384 independent work units — meaningful when you're encoding security footage in real time across multiple camera feeds or running distributed analytics on archived video segments. Each core can tackle a separate encoding job, reducing per-stream latency significantly.
• 3.70 GHz Maximum Boost Frequency: Turbo acceleration to 3.7 GHz ensures single-threaded or lightly-threaded workloads (like interactive video playback scrubbing or rapid metadata searches) don't stall waiting for clock speed. Video editing and VMS dashboarding remain responsive even under mixed load.
• 12-Channel DDR5 Memory Support at up to 6400 MT/s: Twelve independent memory channels feeding data at 6400 megatransfers per second eliminate memory bottlenecks when processing large frame buffers or maintaining high-speed caches for video analytics. With 6 TB maximum addressable memory, a single processor can hold days of uncompressed or lightly-compressed video metadata in RAM — critical for rapid search and playback across archive tiers.
• 160 PCIe Lanes (PCIe 5.0 capable): Direct GPU attachment via 160 lanes means eight attached GPUs (the processor delivers 13% faster time-to-first-token and 6% higher overall inference throughput than equivalent 8x GPU configurations) operate without PCIe oversubscription. Each GPU sees full bandwidth, eliminating the chokepoint that typically appears when multiple accelerators compete for limited I/O paths.
• 384 MB L3 Cache: A quarter-gigabyte of on-chip L3 cache reduces main-memory stalls for hot data sets — particularly important in video encoding pipelines where frame buffers, motion-estimation tables, and reference frames are accessed thousands of times per second. Lower cache misses mean fewer memory round-trips and higher sustained throughput.
• 500W Thermal Design Power: Standard power envelope compatible with existing 2P/1P socket-capable motherboards and enterprise power distribution infrastructure. No requirement for specialized PSUs or exotic cooling — deployment fits into standard 42U racks and data-center power rails designed for conventional x86-64 server processors.

Integration & Compatibility

The 100-000000049E integrates into two-socket (2P) or single-socket (1P) configurations, allowing flexible scaling from single-processor systems to dual-processor clusters on a shared motherboard. The 160 PCIe lanes and 12 DDR5 channels are wired to the processor die — no switching fabric or NUMA bridges introduce latency. Direct attachment of eight GPUs (or four high-bandwidth PCIe 5.0 cards) ensures inference models and video transcoding kernels see deterministic, low-latency memory and I/O paths. The architecture supports standard enterprise management frameworks (IPMI, Redfish) and Linux kernel modules for performance monitoring and thermal throttling.

What's in the Box

The AMD 100-000000049E is supplied as a standalone processor. Mounting and configuration documentation are provided by the original equipment manufacturer (OEM) or system integrator. No heatsink, mounting hardware, or installation kit is included — these are specified and sourced separately based on your motherboard and cooling strategy.

Frequently Asked Questions

Q: What is the warranty on the 100-000000049E?

A: Warranty terms depend on the channel and region of purchase. Consult your reseller or the OEM for specific coverage details.

Q: Is the 100-000000049E compatible with my existing x86-64 server motherboard?

A: The 100-000000049E requires an EPYC 7002-series (or later) socket motherboard. Verify your board's processor support list and BIOS version before installation.

Q: Can I use the 100-000000049E in a single-socket or dual-socket configuration?

A: Yes. The processor supports both 1P (single) and 2P (dual) socket modes. Your motherboard and system firmware must support the configuration you intend.

Q: What is the power consumption of the 100-000000049E under full load?

A: The TDP is 500W. Peak power consumption under sustained heavy workloads (such as 8 GPUs running inference concurrently and all 192 cores at maximum boost) may approach or briefly exceed this figure depending on voltage regulation and thermal headroom.

Q: How much memory can the 100-000000049E address?

A: The processor supports up to 6 TB of DDR5 memory across its 12 memory channels.

Q: What is the latency impact of attaching eight GPUs to the 100-000000049E?

A: With 160 PCIe lanes, each GPU receives 16 lanes of PCIe 5.0 bandwidth without oversubscription. There is no switch fabric or I/O virtualization layer introducing additional latency — GPU-to-memory and CPU-to-GPU communication operate at the physical latency of PCIe 5.0.

Jerry Tildsen

The AMD 100-000000049E is purpose-built for high-throughput, low-latency workloads where per-core efficiency and memory bandwidth matter. The 192 cores and 384 threads give you genuine parallelism — not marketing theater — across up to eight GPU accelerators. If you're managing a surveillance platform that ingests feeds from dozens of cameras and runs real-time object detection or facial recognition on every frame, the 100-000000049E's 3.7 GHz boost and 12-channel DDR5 interface keep the pipeline fed without artificial bottlenecks.

Technical Highlights:

• 160 PCIe lanes (PCIe 5.0): Eight attached GPUs run at full 16 lanes each without contention — each accelerator sees 32 GB/s bidirectional bandwidth, eliminating the 30–50% throughput loss you'd see with oversubscribed PCIe switching fabrics. Direct CPU-to-GPU transfers run at wire speed, not fabric speed.
• 12-channel DDR5 at 6400 MT/s: Six terabytes of addressable memory across parallel channels means video metadata, ML model weights, and frame buffers stay in fast RAM instead of spilling to SSD. A single processor can hold weeks of searchable metadata from dozens of concurrent video streams in memory — meaningful for forensic replay and rapid-access archive systems.
• 384 threads across 192 cores: Every thread is a genuine, independent execution unit — no hyperthreading oversubscription. Run 384 software threads (or 64 GPU kernel launches, or a mix) without cache contention or false sharing between cores. Sustained throughput scales nearly linearly with thread count up to saturation.

Deployment Considerations:

• The 500W TDP assumes adequate cooling — air-cooled systems require minimum 150–200 CFM airflow; liquid cooling is optional but increases stability under sustained 100% load. Verify your data-center or cabinet's thermal envelope before committing.
• Eight GPUs require 16 lanes each — verify your motherboard's PCIe slot layout and lane assignment logic. Some boards multiplex lanes or require firmware settings to unlock full 16-lane slots; check the OEM manual before integration.
• DDR5 DIMM pricing remains elevated; 6 TB configurations are rare and expensive. Budget for mature DDR5 pricing or consider 2–3 TB configurations unless you genuinely need petabyte-scale in-memory caching.

Position the 100-000000049E for distributed inference or real-time video analytics clusters where you're encoding multiple streams at HD or higher resolution and running concurrent ML models on the output. Single-socket deployments scale to 8 GPUs and 6 TB memory; dual-socket clusters double the core count and GPU attachment, but introduce NUMA memory topology — plan your software architecture accordingly to avoid cross-socket memory traffic penalties.