Intel P5430 7.68TB U.2 PCIe 4.0 Enterprise SSD

Brand: Intel | Category: Enterprise SSDs

SKU: INTEL-P5430-7.68TB-U2-PCIE-4-SSD | Part #: INTEL-P5430-7.68TB-U2-PCIE-4-SSD | MPN: INTEL-P5430-7.68TB-U2-PCIE-4-SSD

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Intel-P5430-7.68TB-U2-PCIE-4-SSD delivers 0.58 DWPD (5-year endurance), making it a purpose-built enterprise SSD for write-intensive workloads requiring high-capacity, reliable storage in a compact form factor. This 7.68 TB Intel P5430 Series drive combines NVMe PCIe 4.0 x4 performance with Intel QLC 3D NAND technology to balance speed, capacity, and enterprise-grade protection in data center environments.

Storage architects and IT procurement teams will find this U.2 2.5-inch drive well-suited for infrastructure demanding sustained throughput and IOPS density. The drive delivers sequential read speeds up to 7,000 MB/s and sequential write speeds up to 2,600 MB/s, with random read performance reaching 1,000,000 IOPS (4K) and random write performance at 140,000 IOPS (4K). Security features include AES 256-bit Self-Encrypting Drive (SED) with TCG Opal 2.0 compliance, hardware-based power loss protection via capacitor-backed technology, and T10 DIF/DIX-compatible end-to-end data protection. Operating across 0°C to 70°C, the drive consumes approximately 14 W during active reads and maintains a 2,000,000-hour mean time between failures, supporting mission-critical deployments with NVMe 1.4 specification compliance.

Enterprise Deployment Scenarios

• High-capacity storage nodes in hyperscale data centers requiring large-volume hot-tier capacity without compromising PCIe 4.0 performance
• Database and transaction-heavy systems benefiting from up to 140,000 random write IOPS and power loss data protection
• Encrypted storage requirements in regulated environments, leveraging TCG Opal 2.0 and 256-bit AES encryption
• NVMe infrastructure refreshes targeting improved IOPS-per-watt efficiency in existing U.2-compatible chassis
• Content delivery and caching platforms maximizing capacity density while maintaining sequential throughput above 7,000 MB/s