PROLIANT BL620C 1XXE/E7530 SYST NOHDD 8GB(MAX.
Overview
The ProLiant BL620c G7 offers unmatched scalability and performance in a 2P Intel® Xeon® blade. Two models are now available, one optimized for the Intel Xeon E7-2800 and the other optimized for the Intel Xeon 6500/7500. Two top performing 130W processors are supported along with 32 RDIMM slots for 1.0TB (E7-2800 models) and 512GB (6500/7500 models) of memory for ultimate virtualization efficiency. The four included 10Gb FlexFabric CNA ports support standard Ethernet to advanced networking and the three PCIe Gen2 expansion slots yield an outstanding 96Gb of total I/O bandwidth for up to 133 VMs.
The BL620c G7 is also perfect for 2P applications requiring performance and features greater than typical 2P server offerings. The scalability of the BL620c G7 offers up to 800% the memory, an extensive list of RAS features, 20x the embedded Ethernet bandwidth, 4x the VMs, 3x the on-board I/O expansion slots, and 4.8x the total I/O bandwidth than many other 2P blades available today.
Features
The World’s Most Scalable 2P Server in a Single Full-height Blade Form Factor
⁍ 2P blade with 32 DIMM slots for up to 1.0 TB of memory provides virtualization efficiency for large consolidation projects and a variety of demanding data intensive workloads
Powerful 2P Performance and Economics in a Single Blade Server
⁍ Choice of up to two Intel Xeon E7-2800, 6500, or 7500 series processors are ideal for 2P applications requiring performance and features greater than typical dual processor (DP) Intel Xeon 5500 and 5600 offerings
Four Embedded HP Virtual Connect 10Gb FlexFabric Adapters
⁍ Four embedded NC553i 10Gb Converged Network Adapter ports deliver extensive bandwidth for network intensive applications with up to 16 connections to network and storage without the need for add-in I/O mezzanine cards
Fully Balanced, Optimized Intel Xeon 2S Architecture
⁍ With major advances in CPU performance, applications are already memory and I/O bound, not processor. Yet, typical server blades are often unbalanced, providing processor performance and density at the expense of proportional memory capacity, I/O bandwidth and storage.