| Brand | Micron |
|---|---|
| Model | 7600 MAX |
| Capacity | 1600GB |
| Usage Class | Enterprise |
| Host Interface | PCIe Gen5 NVMe |
|---|---|
| Total Interface Bandwidth | 16 Gb/s |
| Form Factor | E1.S 15mm |
|---|
| NAND Flash | 3D TLC |
|---|---|
| Drive Writes Per Day | 3 |
| Total Bytes Written | 8760 TBW |
| Sequential Read | 12000 MB/s |
|---|---|
| Sequential Write | 3300 MB/s |
| Random Read IOPS | 1800000 |
| Random Write IOPS | 560000 |
| Average Latency | 75 μs |
| Mean Time Between Failures | 2.5 Million Hours |
|---|---|
| Uncorrectable Bit Error Rate | 1.0×10⁻¹⁷ |
| Power Loss Protection | Yes |
The Micron 7600 MAX 1600GB (MTFDLCE1T6THS-1BP1DFCYY) is purpose-built for write-intensive caching, metadata, and journaling tiers in AI storage nodes, high-frequency OLTP databases, and CDN edge servers, combining PCIe Gen5 latency with 3 DWPD endurance and 8,760 TBW for sustained 24/7 operation. Its 12,000 MB/s sequential read throughput and 1.8M random read IOPS deliver a clear advantage over typical mixed-use Gen5 SSDs by maximizing small-block responsiveness without sacrificing enterprise-grade TLC reliability.
With an endurance rating of 8,760 TBW, this SSD is built for very heavy write activity and is equivalent to writing the full 1.6 TB capacity about three times per day across a five-year service life. In typical enterprise use—and especially for OS, boot, or read-heavy application workloads—this level of endurance provides a very large safety margin and can support many years of worry-free operation. Its enterprise-class reliability is further strengthened by power-loss protection (PLP), which helps preserve in-flight data and metadata during an unexpected power interruption, reducing the risk of corruption or incomplete writes. The specified UBER of 1.0E-17 indicates an extremely low probability of uncorrectable bit errors, supporting high data integrity expectations for business-critical storage environments.
1. The PCIe Gen5 NVMe interface, paired with **12,000 MB/s** sequential read performance, accelerates large dataset streaming, VM boot storms, and checkpoint loading in latency-sensitive enterprise platforms.
2. With **1,800,000K random read IOPS**, the drive sustains massive parallel access for high-concurrency databases, real-time analytics, and heavily virtualized cloud environments.
3. A **3 DWPD** endurance rating enables consistent write-intensive operation over the drive’s service life, making it well suited for transactional systems, caching tiers, and mixed enterprise workloads.
4. Built on **3D TLC NAND**, the SSD balances enterprise-class capacity, endurance, and cost efficiency for scalable deployment across mainstream data center storage pools.
5. A typical latency of **75 µs** helps reduce application response time and tail-latency exposure, which is critical for OLTP, metadata-heavy workloads, and performance-sensitive service delivery.
Lower capacity reference: 800GB Higher capacity reference: 3200GB In this SSD family, the 1600GB model sits at the practical sweet spot. Compared with the 800GB version, it provides much better headroom for OS images, application growth, log retention, and overprovisioning, reducing early capacity pressure in mixed enterprise workloads. Compared with the 3200GB option, it delivers a more balanced acquisition cost while keeping similar enterprise-class sequential throughput and random IOPS behavior. This makes 1600GB especially well suited for medium-scale virtualization clusters, such as hosting boot and application volumes for roughly 40 to 60 business workloads.
Q: Is MTFDLCE1T6THS-1BP1DFCYY suitable for a write-heavy database server?
A: Yes. With 3 DWPD endurance, 8760 TBW, 3D TLC NAND, low 75 µs typical latency, and PCIe Gen5 NVMe performance, it is well suited for write-intensive database and transactional workloads.
Q: How many full drive writes per day can it actually endure over its warranty period?
A: This model is rated for 3 DWPD, meaning it can sustain about three full 1600GB drive writes per day throughout the warranty period, assuming operation within the specified workload and environment.
Q: Does it include power loss protection (PLP) and why is that critical?
A: Yes, it includes power loss protection. PLP helps preserve in-flight data and metadata during unexpected outages, reducing corruption risk and improving reliability for databases, virtualization, and other enterprise applications.
Q: What RAID level is recommended for this SSD?
A: RAID choice depends on workload and availability targets. RAID 1 or RAID 10 is commonly recommended for databases because they provide strong redundancy, fast recovery, and better write performance than parity RAID.