General

Brand	Micron
Model	7600 MAX
Capacity	3200GB
Usage Class	Data Center

Interface

Host Interface	PCIe Gen5 NVMe
Total Interface Bandwidth	32 Gb/s

Physical Dimension

Form Factor	E3.S

Flash & Endurance

NAND Flash	3D TLC
Drive Writes Per Day	3
Total Bytes Written	17520 TBW

Performance

Sequential Read	12000 MB/s
Sequential Write	6500 MB/s
Random Read IOPS	2100000
Random Write IOPS	370000
Average Latency	55 μs

Reliability

Mean Time Between Failures	2.5 Million Hours
Uncorrectable Bit Error Rate	1.0×10⁻¹⁷
Power Loss Protection	Yes

Engineer's Note

The Micron 7600 MAX 3.2TB (MTFDLBQ3T2THS-1BP1JABYYT) is purpose-built for read-dominant, latency-sensitive workloads such as AI feature stores, large-scale OLTP indexes, and CDN metadata tiers, where its PCIe Gen5 interface, 12,000 MB/s sequential read, and 2.1M random read IOPS accelerate data access well beyond typical Gen4-class enterprise SSDs. With 3 DWPD endurance and 17,520 TBW on 3D TLC NAND, it also gives architects a stronger write budget and longer service life than mainstream mixed-use drives, making it a more durable choice for high-churn cache and journal layers without sacrificing top-end read performance.

Endurance & Reliability

With an endurance rating of 17,520 TBW, this SSD is designed to handle extremely write-intensive enterprise workloads over its service life. In practical terms, for typical OS, boot, virtualization, and mixed application workloads, this level of endurance is far beyond normal system-disk requirements and provides substantial long-term write headroom. Its enterprise-grade reliability is further strengthened by power-loss protection (PLP), which helps preserve in-flight data and protects metadata integrity if power is interrupted unexpectedly. The specified UBER of 1.0E-17 means an exceptionally low probability of uncorrectable bit errors, giving procurement teams added confidence in data integrity for business-critical deployments.

Technical Specs & Insights

1. The PCIe Gen5 NVMe architecture gives this drive the bandwidth headroom to remove storage bottlenecks in GPU servers, high-density virtualization clusters, and real-time analytics platforms.
2. Its top-tier sequential read performance accelerates large-block data movement, cutting dataset staging, checkpoint loading, and backup recovery time in enterprise pipelines.
3. The ultra-high random read capability is built for transaction-heavy and metadata-intensive workloads, helping large databases and cloud platforms sustain massive concurrency with faster response under pressure.
4. With enterprise-grade write endurance, it can absorb continuous daily rewrites in logging, caching, and mixed-write infrastructure without sacrificing deployment lifespan or maintenance predictability.
5. The 3D TLC NAND design, paired with very low typical latency, delivers a strong balance of capacity efficiency, consistent QoS, and quick access times for latency-sensitive business applications.

Capacity Sweet

Lower capacity reference: 1600GB Higher capacity reference: 6400GB At 3200GB, this SSD sits in the sweet spot of the series. Compared with the 1600GB model, it gives meaningfully more headroom for dataset growth, overprovisioning flexibility, and mixed-workload consolidation, reducing the chance of early capacity bottlenecks. Compared with the 6400GB version, it delivers a more balanced acquisition cost while keeping essentially the same enterprise-class sequential throughput and random IOPS behavior. This makes 3200GB especially well suited for mid-scale virtualization clusters, dense database nodes, or hyper-converged infrastructure needing strong capacity efficiency without overcommitting budget.

FAQ