General

Brand	Micron
Model	2500
Capacity	1024GB
Usage Class	Client

Interface

Host Interface	PCIe Gen4 NVMe
Total Interface Bandwidth	16 Gb/s

Physical Dimension

Form Factor	M.2 2280

Flash & Endurance

NAND Flash	3D QLC
Drive Writes Per Day	0.16
Total Bytes Written	300 TBW

Performance

Sequential Read	7100 MB/s
Sequential Write	6000 MB/s
Random Read IOPS	900000
Random Write IOPS	1000000
Average Latency	50 μs

Reliability

Mean Time Between Failures	2 Million Hours
Uncorrectable Bit Error Rate	1.0×10⁻¹⁷
Power Loss Protection	Yes

Engineer's Note

The Micron 2500 1024GB (MTFDKBA1T0QGN-1BN1AABYYR) is best suited for read-centric client and edge workloads such as game libraries, content distribution caches, virtual desktop images, and local AI/data staging, where its PCIe Gen4 performance of up to 7100/6000 MB/s and 900K/1M IOPS delivers near-flagship responsiveness from a 3D QLC design. Compared with typical same-class QLC SSDs, it stands out by combining higher random write capability with a balanced 300 TBW endurance profile, making it a stronger choice when you need low-cost-per-GB capacity without giving up sustained real-world application performance.

Endurance & Reliability

With an endurance rating of 300 TBW and 0.16 DWPD, this 1TB SSD is well suited for typical read-centric and mixed-use workloads such as OS boot, application hosting, office productivity, and general industrial or embedded system storage. In practical terms, for a system drive writing around 80GB per day, it can support roughly 10 years of operation before reaching its rated endurance, providing comfortable headroom for normal long-term deployment. For enterprise reliability, built-in power loss protection helps preserve in-flight data and metadata during unexpected power interruptions, reducing the risk of corruption and improving system recovery confidence. In addition, the specified UBER of 1.0E-15 and 2 million hour MTBF indicate a very low probability of unrecoverable bit errors and strong overall hardware reliability for continuous-duty environments.

Technical Specs & Insights

1. The PCIe Gen4 NVMe architecture, paired with multi-gigabyte-per-second sequential throughput, accelerates database warm-up, VM boot storms, and large-scale analytics ingest.
2. Its ultra-high random read capability sustains fast metadata lookups and dense virtualized workloads, helping cloud platforms serve more transactions with fewer latency spikes.
3. The light write-endurance profile is best suited to read-centric enterprise deployments such as content repositories, AI data lakes, and scale-out object storage where capacity efficiency matters more than heavy daily overwrites.
4. Built on 3D QLC NAND, the drive delivers high density and lower cost per terabyte, making it attractive for fleets that need to store massive warm datasets without paying a premium for write-heavy flash.
5. With typical latency in the tens of microseconds, it enables consistently responsive access for caching tiers, search indexing, and real-time data services where tail-latency control impacts user experience.

Capacity Sweet

Reference capacities in the same family: 960GB as the next lower tier and 1920GB as the next higher tier. In this product family, the 1024GB model sits at the sweet spot for mainstream enterprise deployment. Compared with the 960GB option, it gives administrators more headroom for OS images, application growth, overprovisioning, and unexpected data expansion, reducing early capacity pressure. Compared with the 1920GB version, it preserves nearly the same enterprise-class throughput and random IOPS profile while keeping acquisition cost and $/workload better controlled. It is especially well suited for mid-scale virtualization clusters, such as hosting boot and application volumes for roughly 60 to 80 general-purpose virtual machines.

FAQ