HPE 1.92TB NVMe Gen5 Mainstream Performance Read Intensive E3.S EC1 E3 Thin Multi Vendor SSD

HPE 1.92TB NVMe Gen5 Mainstream Performance Read Intensive E3.S EC1 E3 Thin Multi Vendor SSD

Do you need to accelerate the performance of your read intensive applications? HPE NVMe Mainstream Performance Read Intensive (RI) Enterprise and Datacenter Standard Form Factor (EDSFF) E3.S Solid State Drives (SSDs) are best suited for applications requiring a strong blend of high read IOPS, low latency, and high endurance at a strong price point. NVMe SSDs communicate directly to applications via the PCIe bus to boost I/O bandwidth and reduce latency. HPE NVMe Mainstream Performance EDSFF E3.S SSD replaces the traditional 2.5 inch small form factor SSD while supporting greater density of NVMe drives. It provides high-performance data transfers at rates faster than SAS or SATA SSDs. Designed to utilize the high bandwidth of PCIe Gen5 on servers with workloads high in reads such as read caching, web servers, and boot/swap.

Offering 1.92 TB, 3.84 TB, 7.68 TB, 15.36 TB, and 30.72 TB storage capacities for HPE NVMe Mainstream Performance Read Intensive EDSFF E3.S SSDs.

High Performance, Exceptional Reliability, and Efficiency for Faster Business ResultsHPE NVMe Mainstream Performance Read Intensive (RI) Enterprise and Datacenter Standard Form Factor (EDSFF) E3.S Solid State Drives (SSDs) are ideal for databases, cloud compute, containers, and hyperscale environments.Achieve higher IOPS and lower latency to enhance the performance of your enterprise servers while maintaining data accuracy with full data-path error detection.Improved thermals, power, and scalability provide better system efficiency for high I/O applications.Faster PCIe Gen 5 technology only available with EDSFF E3.S SSDs.
Improved Design and Efficiency for Increased Performance on Gen 11 ServersDramatically increase density with a 1U server that can fit 20 E3.S or 10 E3.S 2T drives, or a 2U server that can fit 36 E3.S or 18 E3.S 2T drives.Improved power management and density while utilizing less power.