Micron 5400 PRO 240 GB M.2 SATA SSD – Read Intensive

Upgrade your storage tier with the Micron 5400 PRO 240 GB solid state drive. This M.2 2280 internal SSD blends Micron’s trusted reliability with a SATA interface optimized for read-intensive workloads. Engineered for data centers, servers, and high-demand workstations, the 5400 PRO delivers consistent latency, steady throughput, and efficient power usage, enabling faster boot times, snappier data access, and improved application responsiveness. Whether you’re deploying caching for database workloads, accelerating virtualization, or refreshing aging storage, this drive pairs compact form factor with enterprise-grade durability to keep your workflow uninterrupted.

• Compact M.2 2280 form factor enables flexible deployment in servers, desktops, and mobile workstations while preserving PCIe lanes for other devices.
• SATA 6Gb/s interface (SATA/600) provides dependable, compatibility-rich performance aligned with read-intensive workloads, ensuring predictable response times under heavy read traffic.
• 240 GB capacity delivers a balanced mix of operating system, application data, and cache storage, helping to optimize boot times and application load without sacrificing density.
• Read-intensive design is optimized for steady read throughput, streaming data, and frequent read operations, making it an ideal fit for logging, caching layers, and data-serving roles.
• Enterprise-grade reliability with wear leveling, error correction, and data integrity features designed to extend drive life in demanding environments and reduce maintenance windows.

Technical Details of Micron 5400 PRO 240 GB

• Form Factor: M.2 2280
• Interface: SATA III (SATA/600)
• Capacity: 240 GB
• Drive Type: Read Intensive
• Internal Drive: Yes

How to install Micron 5400 PRO 240 GB

• Prepare your system by powering down completely and unplugging power. Ground yourself to avoid static discharge.
• Open the chassis or access panel to locate the M.2 slot on the motherboard or compatible storage controller. Ensure the slot supports SATA (not NVMe) devices.
• Insert the Micron 5400 PRO into the M.2 slot at a slight angle (about 30 degrees) and gently push it down toward the motherboard.
• Secure the drive with the mounting screw provided with your motherboard or case. Do not overtighten the screw to avoid damaging the connector.
• Power on the system and enter the BIOS/UEFI to confirm the drive is detected. In the operating system, initialize and format the drive as needed (NTFS, exFAT, or appropriate file system).
• For best results, configure any appropriate caching or storage tiering policies in your server or workstation to take advantage of the read-optimized performance.

Frequently asked questions

• What is the Micron 5400 PRO 240 GB used for? It is a read-intensive, SATA-based SSD designed to accelerate data access, caching, boot drives, and read-heavy workloads in data centers, servers, and workstations.
• Does this drive support NVMe or PCIe? No. The Micron 5400 PRO uses a SATA interface (SATA III) and is not an NVMe PCIe drive, which makes it compatible with a wide range of existing SATA-enabled systems.
• Is M.2 2280 compatible with my motherboard? Most modern desktops and many servers include an M.2 slot that supports SATA-based drives. Check your motherboard’s documentation to ensure it supports 2280 size and SATA mode. If in doubt, consult your vendor’s compatibility list.
• What benefits does a 240 GB SSD provide for read-intensive workloads? A 240 GB SSD offers fast random read performance, reduced latency for read operations, and compact storage density suitable for operating systems, applications, and cache layers. It’s especially effective for boot drives, caching, and data-serving tasks where reads are frequent.
• What kind of workloads should I pair with this SSD? Ideal for database caching, application caching layers, log streaming, boot drives, content serving, and virtualization workloads where read performance and reliability are critical.
• How do wear leveling and data integrity features affect longevity? Wear leveling distributes writes evenly across the flash blocks, while error correction and data integrity mechanisms protect against data corruption. Together, these features help extend drive life in high-usage environments.