CPU Comparison
Intel Xeon 6741P vs Intel Xeon 6747P
A side-by-side comparison of specs, performance and value. The Intel Xeon 6741P is a 48-core, 96-thread single-socket server processor in the Xeon 6 Performance lineup, built on the Intel 3 process with 8-channel DDR5-6400 memory, 136 PCIe 5.0 lanes, and a 300 W TDP, targeting data center and AI workloads.
The Bottom Line
Overview & Launch
Specifications Compared
Specialized Performance
AI / ML
- Intel AMX supported for matrix operations
- DL Boost on CPU for AI inference acceleration
- Suitable for CPU-based AI inference and some training workloads
- Intel AMX and DL Boost accelerate matrix and inference workloads on‑CPU
- No discrete GPU on the CPU; large AI training workloads typically require add‑in accelerators
- Well‑suited for inference at scale in data centers with CPU‑first deployments
Content Creation
Gaming
- No integrated graphics
- Designed for server/data center workloads
- Consumer platforms provide better gaming value
- No integrated graphics
- Socket and platform are server/workstation oriented, not desktop gaming
- Single‑thread clocks are lower than typical gaming CPUs; latency matters more for servers
Industry Impact
Best CPU by Use Case
Target Audience
Strengths & Weaknesses
Pros
- High core and thread count for parallel server workloads
- Large 288 MB L3 cache
- Eight DDR5 channels with DDR5-6400 support
- 136 PCIe 5.0 lanes for extensive I/O
- Multiple on-die accelerators (AMX, DSA, DLB, IAA, QAT)
- Single-socket design simplifies platform layout
- ECC memory support for reliability
- VT-x/VT-d and RDT for virtualization and resource management
Cons
- 300 W TDP requires robust cooling and power delivery
- No integrated graphics
- Multiplier locked; not designed for enthusiast overclocking
- Higher cost relative to lower-end server SKUs
- Overkill for light workloads or consumer desktop use
Pros
- 48 cores and 96 threads for high multi‑threaded throughput
- Large 288 MB L3 cache and Intel 3 manufacturing
- Eight‑channel DDR5/MRDIMM support with up to 4 TB per socket
- 88 PCIe 5.0 lanes per socket for modern NVMe and NICs
- Intel AMX and DL Boost for CPU‑side AI inference
- DSA/DLB/IAA/QAT accelerators for storage, networking, and analytics
- Dual‑socket UPI interconnect (24 GT/s, 4 links)
- Intel TDX and TME for confidential computing and memory encryption
Cons
- 330 W TDP requires robust power and cooling in the rack
- No integrated graphics; requires a discrete GPU or headless operation
- Server‑focused platform and firmware may not suit desktop/workstation software stacks
- Consumer‑familiar features like an unlocked multiplier are not present
Competitors & Alternatives
Intel Xeon 6741P
- AMD EPYC 8534P (Bergamo)Rival
Server
- AMD EPYC 9554 (Genoa)Rival
Server
- AMD EPYC 9754 (Bergamo)Rival
Server
- AMD EPYC 9354P (Genoa)Rival
Server
- Compare head-to-headIntel Xeon 6747PRival
Server
Lower core count and TDP if workloads are less thread-heavy.
Compare head-to-headDifferent core/TDP balance within the same Xeon 6700P family.
Compare head-to-head- AMD EPYC 9354PAlt
Competing 32-core server CPU with high memory bandwidth and PCIe 5.0.
- AMD EPYC 9454PAlt
Higher core count competitor in similar power envelope.
Higher-end SKU in the same family for more demanding workloads.
Compare head-to-head
Intel Xeon 6747P
- AMD EPYC 8534P (Siena, 64c/128t, 200 W, SP6)Rival
Cloud/Edge Server CPU
- AMD EPYC 8434P (Siena, 48c/96t, 200 W, SP6)Rival
Cloud/Edge Server CPU
- AMD EPYC 9334 (Genoa, 32c/64t, 210 W, SP5)Rival
General‑Purpose Server CPU
- Intel Xeon 6737P (32c/64t, 270 W, FCLGA4710)Rival
Xeon 6 6700P (Granite Rapids‑SP)
- Intel Xeon 6741P (48c/96t, 300 W, FCLGA4710)Rival
Xeon 6 6700P (Granite Rapids‑SP)
Same 48 cores/96 threads and 288 MB L3 on Granite Rapids‑SP but 300 W TDP (2.5 GHz base) and single‑socket designs; choose 6741P if you prefer lower TDP or UP builds.
Compare head-to-head32 cores with higher per‑core clocks (2.9 GHz base) and 270 W; better for workloads that benefit from fewer but faster cores.
Compare head-to-head- AMD EPYC 8534PAlt
64 cores on Siena at 200 W for cloud/telco and edge environments that prioritize lower power and single‑socket density.
- AMD EPYC 8434PAlt
48 cores on Siena at 200 W; if your use case is power‑constrained and you can trade Intel’s accelerators and DDR5/MRDIMM capabilities for lower TDP.
- Intel Xeon 6900P series (LGA 7529)Alt
Higher core counts and triple compute tile configurations for larger scale‑up and AI‑heavy deployments.
Our Verdict on Each
A capable single-socket server CPU with strong core counts and abundant I/O, well-suited for compute- and I/O-bound data center workloads, provided power and cooling are adequate.
Best for: Single-socket servers or workstations requiring high core count, large memory bandwidth, and many PCIe lanes for accelerators and NVMe storage.
Read the full reviewA capable 48‑core Granite Rapids‑SP part aimed at dual‑socket servers and workstations. It offers strong multi‑threaded throughput, high memory bandwidth with DDR5 or MRDIMM up to 8000 MT/s, and robust I/O with 88 PCIe 5.0 lanes, making it a solid fit for virtualization, databases, and CPU‑side AI inference.
Best for: Dual‑socket servers for virtualization, enterprise databases, and CPU‑side AI inference in data centers
Read the full reviewFrequently Asked Questions
Which is better, Intel Xeon 6741P or Intel Xeon 6747P?
Based on our editorial ratings, the Intel Xeon 6747P comes out ahead with a score of 9/10. That said, the best choice depends on your workload — check the spec and performance breakdown above for gaming, productivity and efficiency differences.
Which uses less power?
The Intel Xeon 6741P has the lowest rated TDP. Power draw across these chips: Intel Xeon 6741P (300 W), Intel Xeon 6747P (330 W).
Do Intel Xeon 6741P and Intel Xeon 6747P use the same socket?
Yes — all of these CPUs use the FCLGA4710 socket, so they share compatible motherboards.
Which is faster in multi-core benchmarks?
The Intel Xeon 6747P posts the highest multi-core benchmark score. Multi-core results: Intel Xeon 6747P (101,685). Benchmark figures are approximate and workload-dependent.