P48062-B21 HPE 1.92TB NVMe SSD RI SFF BC U.3 TLC

HPE P48062-B21 1.92TB NVMe Read Intensive SSD

The HPE P48062-B21 is a high-performance NVMe solid-state drive (SSD) engineered for read-intensive applications in modern enterprise storage systems. Designed to deliver reliable, high-speed data access, this SFF (Small Form Factor) SSD integrates HPE’s advanced technology to ensure superior performance and endurance.

Key Features of HPE P48062-B21 SSD

• Manufacturer: HPE
• Model Number: P48062-B21
• Form Factor: SFF (Small Form Factor)
• Interface: NVMe U.3 for high-speed connectivity
• Capacity: 1.92TB TLC NAND flash memory
• Hot-Pluggable design for easy maintenance
• Backplane Carrier (BC) compatible

Storage Capacity and Form Factor

This SSD offers a massive 1.92TB storage capacity suitable for enterprise-level workloads, including database operations, virtualized environments, and large-scale analytics. The SFF form factor ensures it fits efficiently in dense server racks while maintaining thermal and power efficiency.

Physical Specifications

• Height: 15 mm
• Form Factor: SFF
• Port Configuration: Single port for seamless integration
• Carrier Type: BC (Backplane Carrier)

Performance and Speed

The HPE P48062-B21 SSD is optimized for read-intensive workloads, providing exceptional speed and responsiveness:

• Random Read Performance: Up to 155,000 IOPS
• Random Write Performance: Up to 30,000 IOPS
• Sequential Read Speed: Up to 5,500 MB/s
• Sequential Write Speed: Up to 1,150 MB/s

Read-Intensive Workload Optimization

Specifically engineered for read-heavy tasks, this NVMe SSD ensures that high-demand applications such as data analytics, virtualization, and content delivery experience minimal latency and maximum throughput.

Advantages of TLC NAND Technology

• Triple-Level Cell (TLC) NAND for higher storage density
• Enhanced endurance for enterprise environments
• Cost-effective solution for large-scale deployments

Connectivity and Compatibility

The drive utilizes a U.3 NVMe interface, offering advanced connectivity for modern servers and storage arrays:

• Single NVMe port for high-speed data transfer
• Hot-plug support to replace or upgrade without downtime
• BC (Backplane Carrier) compatibility for easy integration into HPE servers

Enterprise Applications

This SSD is ideal for environments that demand consistent high-speed reads, including:

• Database management systems
• Virtualized and cloud computing platforms
• Big data analytics and real-time processing
• Content delivery networks and caching solutions

Endurance and Data Integrity

• Designed for read-intensive enterprise workloads
• High Mean Time Between Failures (MTBF) for long-term reliability
• Advanced error correction and wear-leveling algorithms

HPE P48062-B21 1.92TB NVMe Solid State Drive  

The HPE P48062-B21 1.92TB NVMe Read Intensive SFF BC U.3 TLC Solid State Drive is engineered for enterprises requiring high-performance storage with reliable read-intensive capabilities. This drive delivers a robust solution for workloads that are heavily skewed toward read operations, making it an optimal choice for database querying, virtual desktop infrastructures, and content delivery systems. The U.3 form factor ensures compatibility with modern server architectures, providing seamless integration with HPE ProLiant and other enterprise-class servers. With 1.92TB of storage capacity, this NVMe SSD offers significant data storage capabilities while maintaining low latency for rapid access to critical information.

Key Features and Capabilities of HPE P48062-B21

Advanced NVMe Technology

The HPE P48062-B21 leverages cutting-edge NVMe interface technology, which substantially enhances data transfer speeds compared to traditional SAS or SATA interfaces. NVMe reduces protocol overhead and allows multiple parallel queues, resulting in higher Input/Output Operations Per Second (IOPS) and lower latency. This technology is particularly valuable for read-intensive applications, where data must be retrieved quickly and efficiently from storage arrays.

Read-Intensive Workload Optimization

Designed specifically for read-intensive workloads, the P48062-B21 delivers superior performance in scenarios dominated by frequent data retrieval. Unlike write-intensive drives, this SSD excels in applications such as content delivery networks, file servers, and analytics platforms, where rapid data access is critical. The drive’s firmware is optimized for high read performance while maintaining endurance levels appropriate for enterprise workloads, ensuring long-term reliability and consistent operation.

Small Form Factor Design

The SFF BC (Small Form Factor, Boot Compatible) design ensures that the HPE P48062-B21 occupies minimal space within server chassis while delivering maximum storage density. Its 2.5-inch form factor and U.3 connector provide backward compatibility with U.2 and SAS infrastructure, offering flexibility for mixed storage environments. The compact design allows IT managers to deploy more drives per server, maximizing storage capacity without increasing rack footprint.

TLC NAND Flash for Reliable Storage

This solid-state drive utilizes Triple-Level Cell (TLC) NAND flash, which provides an ideal balance between cost, capacity, and endurance for read-intensive workloads. TLC NAND stores three bits per cell, enabling higher data density and a lower cost per gigabyte compared to SLC or MLC NAND. The drive’s error correction algorithms and wear-leveling technology extend the lifespan of the NAND flash, ensuring consistent performance throughout its service life.

Performance Specifications and Benchmark Insights

High-Speed Data Transfer Rates

The HPE P48062-B21 is capable of achieving sequential read speeds in excess of 3,000 MB/s, depending on the server configuration and workload characteristics. Sequential write performance is optimized for read-intensive scenarios, providing sufficient bandwidth to support large-scale data retrieval operations. Random read IOPS can exceed 500,000, ensuring that the drive can handle multiple simultaneous queries and database transactions without bottlenecking system performance.

Low Latency Access

NVMe protocol combined with TLC NAND flash allows for extremely low latency access times, typically below 100 microseconds. This rapid response time is critical for applications such as virtual desktop infrastructure (VDI), online transaction processing (OLTP), and high-frequency analytics, where delays in data retrieval can impact overall system efficiency. The HPE P48062-B21 maintains consistent latency even under sustained read workloads, providing predictable performance for enterprise IT environments.

Endurance and Reliability Metrics

Although optimized for read-intensive operations, the P48062-B21 delivers sufficient write endurance for typical enterprise usage. The drive supports Total Bytes Written (TBW) ratings suitable for frequent read applications while ensuring data integrity through advanced error correction mechanisms. End-to-end data protection and power-loss mitigation features safeguard critical enterprise data, making it a dependable choice for mission-critical systems.

Enterprise Integration and Compatibility

U.3 Connector Flexibility

The U.3 interface on the HPE P48062-B21 provides dual compatibility with NVMe and SAS protocols, offering enterprise IT teams the flexibility to integrate this drive into existing infrastructure without extensive hardware modifications. This versatility simplifies server upgrades and migration projects, allowing organizations to take advantage of NVMe performance without abandoning legacy investments.

HPE ProLiant Server Optimization

HPE has optimized this NVMe SSD for seamless operation within its ProLiant server lineup. Integration with HPE Smart Array controllers ensures enhanced monitoring, firmware management, and drive health reporting. The drive also supports HPE InfoSight predictive analytics, enabling administrators to proactively manage storage performance and prevent potential failures before they impact operations.

Cross-Platform Storage Solutions

Beyond HPE servers, the P48062-B21 is compatible with other enterprise-grade servers and storage enclosures that support U.3 NVMe devices. This cross-platform compatibility allows IT departments to consolidate storage assets, simplify inventory management, and reduce costs associated with vendor lock-in. The drive can be deployed in hybrid storage architectures, combining NVMe speed with traditional SAS or SATA storage for a tiered performance approach.

Use Cases for HPE P48062-B21 NVMe SSDs

Virtualized Environments

Virtualization platforms benefit greatly from the high IOPS and low latency of the P48062-B21. Multiple virtual machines can access data concurrently without degradation in performance, supporting high-density VDI deployments, cloud services, and containerized workloads. The drive’s read-optimized design ensures rapid access to virtual disks, improving user experience and overall system efficiency.

Database and Analytics Applications

Enterprise databases, including SQL and NoSQL systems, can leverage the P48062-B21 for accelerated query performance. High-speed random reads reduce latency in analytical workloads, enabling faster report generation, real-time data insights, and efficient transaction processing. Data warehousing and business intelligence applications also benefit from predictable performance under read-heavy operations.

Content Delivery and Media Streaming

The read-intensive nature of this SSD makes it ideal for content delivery networks (CDNs) and media streaming platforms. High-capacity 1.92TB storage allows large libraries of digital content to be stored locally, reducing retrieval times and network congestion. This ensures smooth delivery of high-resolution video, audio, and multimedia content to end-users without buffering delays.

High-Performance Computing and Scientific Research

Research institutions and HPC environments can exploit the drive’s low latency and high IOPS for simulation, modeling, and large-scale data analysis tasks. Rapid read operations allow scientists and researchers to access massive datasets efficiently, enabling faster experimentation cycles and reducing time-to-insight for complex computational workloads.