Supermicro SYS-F629P3-RC1B

Supermicro SYS-F629P3-RC1B is a high-density 4U server platform designed for demanding compute and storage workloads in data center and enterprise environments. It combines dual-socket Intel® Xeon® Scalable processing, high memory capacity and flexible storage with redundant, high-efficiency power.

Processor and platform

• Socket: LGA 3647
• CPU support: 1st/2nd Gen Intel® Xeon® Scalable
• Number of processor sockets: Dual
• Maximum CPU TDP: up to 165W per processor
• Form factor: 4U rackmount chassis

Memory subsystem

• Number of RAM slots: 12 DIMM slots
• Maximum memory capacity: up to 3TB
• Supported memory types: 3DS ECC RDIMM/LRDIMM
• Memory speed: DDR4-2933MHz (depending on CPU and module configuration)
• Error Correction: ECC for improved reliability and data integrity

Storage and expandability

• Drive bays: 8x hot-swap bays
• Drive bay size: 3.5" (optional 2.5" configuration)
• Primary disk interface: SAS3 + SATA3
• Optional: up to 2x 2.5" NVMe
• M.2: 1x M.2 NVMe slot for high-speed OS or cache
• PCI expansion: 1x PCI-E 3.0 x16 low profile

Connectivity

• USB: 2x USB 3.0 ports (rear)
• Networking: connectivity available via optional SIOM network card (flexible NIC configuration depending on installed SIOM module)

Power and reliability

• Number of power supplies: 4
• Power rating: 1200W per PSU
• Redundant power: Yes, redundant configuration for high availability
• Energy efficiency: 80 Plus Titanium certified for optimized power usage
• Manufacturer warranty: 36 months

Key benefits

• High compute density with dual Intel® Xeon® Scalable processors for virtualization, databases and compute-intensive applications.
• Up to 3TB ECC DDR4 memory capacity for memory-intensive workloads and large in-memory datasets.
• Flexible storage configuration with 8x hot-swap bays, SAS3/SATA3 support and additional NVMe options for performance tiers.
• Redundant, Titanium-rated power supplies for maximum uptime and energy efficiency in mission-critical environments.
• Scalable networking via SIOM, allowing adaptation to different bandwidth and interface requirements.