Addlink S92 1TB Review — QLC PCIe 4.0 NVMe SSD

Posted on May 17, 2026 by Raymond Chen

The Addlink S92 1 TB is what happens when you pair QLC NAND with a first-gen Phison E16 controller and a DDR3 DRAM chip — it is a PCIe 4.0 drive that reads fast, writes slowly, and wears out four times faster than a TLC equivalent, but it costs less and comes in capacities the TLC drives of its era could not touch.

Addlink S92 1TB Review — QLC PCIe 4.0 NVMe SSD

The Addlink S92 is built on the Phison PS5016-E16, the same 8-channel PCIe 4.0 controller found in the enthusiast S50 and first-wave Gen 4 drives. What sets the S92 apart is the NAND: Micron 3D QLC instead of TLC. QLC stores 4 bits per cell, which increases density and lowers cost per gigabyte but brings two significant trade-offs — lower write speeds and dramatically lower endurance. The S92 pairs the E16 with a DDR3 DRAM cache, a cost-saving choice over the DDR4 found in most E16 designs. The drive uses the M.2 2280 form factor and the PCIe 4.0 x4 interface.

Addlink offers the S92 in 1 TB, 2 TB, and 4 TB capacities — the 4 TB option was unusual for consumer SSDs when the S92 launched and remains a distinguishing feature of the QLC E16 platform. The 1 TB variant reviewed here is the entry point, with 200 TBW endurance that drops further on the 500 GB SKU and scales up on the 2 TB and 4 TB models. The S92 competes against other QLC PCIe drives like the Corsair MP400, Sabrent Rocket Q, and Intel 670p — all of which share the same basic trade-off: maximum capacity per dollar in exchange for endurance and sustained write speed.

The S92 is not a boot-drive candidate for anyone who writes more than a few GB per day. It is a secondary drive — a game library, a media archive, a Steam folder — where reads dominate writes and the QLC endurance ceiling is a theoretical concern rather than a practical one. The DRAM cache helps with bursty reads, but sustained writes to a QLC drive are an exercise in patience: after the SLC cache fills, direct-to-QLC write speeds can drop into the hundreds of MB/s.

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🚀 Performance and benchmarks

Addlink rates the S92 1 TB at up to 4,900 MB/s sequential reads and 3,600 MB/s sequential writes — figures that place it slightly below the TLC-equipped S50 on writes but comparable on reads. Random performance is rated at up to 350,000 read IOPS and 700,000 write IOPS. In practice, game load times and OS responsiveness are determined by read performance, which the S92 handles well — the 4,900 MB/s reads are more than fast enough for any consumer workload. Writes are a different story.

Performance comparison

Addlink S92 1 TB vs M.2 4.0 x 4 peers

Switch between sequential throughput and random IOPS to see how this drive stacks up against other M.2 4.0 x 4 SSDs in our database. The highlighted bar is the drive on this page — click any other bar to open that drive.

PNY XLR8 CS3140 1 TB: 7,500 MB/s read, 5,650 MB/s write
PNY XLR8 CS3140 2 TB: 7,500 MB/s read, 6,850 MB/s write
Asgard AN4 512 GB: 7,500 MB/s read, 5,500 MB/s write
Asgard AN4 1 TB: 7,500 MB/s read, 5,500 MB/s write
Addlink S92 1 TB (this drive): 4,900 MB/s read, 3,600 MB/s write

Like all QLC SSDs, the S92 uses a portion of its NAND as a pSLC write cache to absorb burst writes at full speed. On the 1 TB model, this cache is typically 60—100 GB when the drive is empty, shrinking as the drive fills. Once the cache exhausts, direct-to-QLC write speeds collapse to roughly 200—400 MB/s — slower than a hard drive in sequential transfers. For a game library drive where writes are mostly large initial installs that complete within the cache, this is manageable. For a mixed-workload OS drive where background writes happen continuously, the QLC penalty is felt constantly. The E16 controller runs warm and benefits from a heatsink, though the QLC NAND's lower write throughput means the controller spends less time at full power than in TLC implementations.

🖥️ Endurance and warranty

The 1 TB Addlink S92 carries a 200 TBW endurance rating and a 5-year limited warranty — one of the lowest TBW figures available in a consumer NVMe SSD. At a typical desktop write rate of 20 GB per day, this works out to roughly 27 years of service — still longer than the 5-year warranty period, but substantially less headroom than the 700—1,800 TBW found on TLC drives. At 50 GB/day — a plausible rate for a drive used for video scratch or heavy downloads — the endurance is exhausted in roughly 11 years, which is still beyond the warranty but unusually tight for an SSD. The MTBF is rated at 1.8 million hours. For context, the Intel 670p 1 TB (QLC) is rated at 370 TBW and the Crucial P3 1 TB (QLC) at 220 TBW — the S92's 200 TBW is at the low end of the QLC endurance spectrum. Addlink handles warranty through its distribution network. The 2 TB variant doubles endurance to 400 TBW; the 4 TB quadruples it to 800 TBW.

📊 Specs

Category	Value
Capacity [?]	1 TB
Interface [?]	M.2 4.0 x 4
Controller [?]	Phison PS5016-E16
Memory type [?]	Micron 3D QLC
DRAM [?]	DDR3
Read speed (MB/s) [?]	4900
Write speed (MB/s) [?]	3600
Read IOPS [?]	350000
Write IOPS [?]	700000
Endurance (TBW) [?]	200
MTBF (million hours) [?]	1.8
Warranty (years) [?]	5

Conclusion

The Addlink S92 1 TB is a QLC drive that makes sense only when you understand and accept its limitations. It reads fast enough for gaming and general desktop use, it has a DRAM cache, and it costs less than TLC alternatives. But it writes slowly once the cache fills, and its 200 TBW endurance rating is low enough that heavy writers should look elsewhere. Buy the S92 as a secondary game library or media drive — a Steam folder on a budget — where reads dominate and endurance is a non-issue. Do not buy it as a boot drive if you run virtual machines, edit video, or do anything that writes more than a few tens of GB per day. For a primary TLC drive at a similar price, the WD Blue SN580 or the Addlink S93 offer DRAM-less TLC designs with better sustained writes and higher endurance. The S92 is a niche tool for a niche job, and used correctly it does that job well.

+ Pros

4,900 MB/s reads on PCIe 4.0 — fast enough for any consumer workload
DDR3 DRAM cache for consistent read latency
Available up to 4 TB — among the highest capacities of its era
5-year warranty despite QLC endurance limits
Low cost per gigabyte for a DRAM-equipped PCIe 4.0 drive
Read-heavy workloads perform similarly to TLC competitors

- Cons

200 TBW endurance — among the lowest in the NVMe segment
Direct-to-QLC write speed drops to 200—400 MB/s after cache fills
Unsuitable as a boot drive for write-intensive workloads
DDR3 DRAM is slower than the DDR4 used in most E16 designs
SLC cache shrinks as the drive fills, worsening write performance

🛒 Buy this or similar SSD Storage:

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⁉️ FAQ

Yes, but it uses DDR3 rather than the DDR4 found in most Phison E16 implementations. The DDR3 DRAM chip stores the flash translation layer mapping table, which helps maintain consistent read latency and reduces write amplification compared to DRAM-less HMB designs. The DDR3 choice is a cost-saving measure — it is slower than DDR4 but still functional for the S92's target workload of read-heavy consumer use. For gaming and general desktop use, the DDR3 DRAM is adequate; for sustained mixed workloads, the combination of QLC NAND and slower DRAM becomes a double bottleneck.

The 1 TB capacity is rated for only 200 TBW — one of the lowest endurance figures in the consumer NVMe market. This is a direct consequence of using QLC NAND, which has inherently lower write endurance than TLC. At a typical 20 GB/day write rate, 200 TBW works out to roughly 27 years of service — still longer than the 5-year warranty, but with far less headroom than the 600—1,800 TBW found on TLC drives. If you write 50 GB/day or more, the endurance limit could theoretically be reached within the drive's usable life. The 2 TB variant doubles endurance to 400 TBW; the 4 TB quadruples it to 800 TBW.

Yes, as a secondary game library drive — not as a boot drive. Games are read-heavy: they load from the drive into RAM and GPU memory, with minimal writes after installation. The S92's 4,900 MB/s reads are more than fast enough for game loads, and the DRAM cache keeps latency low during texture streaming. The 1 TB capacity holds a modest game library. However, the QLC penalty appears during game installs — large Steam downloads will write at full speed initially, then slow dramatically once the SLC cache fills. If you install games frequently or use the drive for recording gameplay footage, the endurance limit and post-cache write speeds will become visible. For a pure game-launch drive that mostly reads, the S92 is cost-effective.

The S92 uses QLC NAND, which stores 4 bits per cell. Writing to QLC requires more precise voltage control and more program/erase cycles than TLC (3 bits) or SLC (1 bit). To deliver acceptable burst performance, the S92 uses a portion of its NAND in pSLC mode as a write cache — roughly 60—100 GB on the 1 TB model when empty. Writes hitting the cache run at the full 3,600 MB/s. Once the cache fills, the controller must write directly to QLC, which drops throughput to roughly 200—400 MB/s. As the drive fills up, the SLC cache shrinks, meaning the slowdown arrives sooner. This is inherent to all QLC SSDs and is the primary trade-off for their lower cost per gigabyte.

The Phison E16 controller benefits from a heatsink under sustained load, but the S92's QLC NAND means sustained writes are relatively slow and the controller spends less time at full power than in TLC E16 drives. For typical read-heavy desktop and gaming use, a heatsink is not required. If you plan to fill the drive in one sitting or run sustained sequential writes, a motherboard M.2 heatsink will prevent thermal throttling. The drive does not ship with a heatsink. In a laptop, the S92's lower sustained write throughput actually works in its favour — it generates less heat than a TLC E16 drive under load.

Both are QLC PCIe drives, but they differ significantly in architecture. The S92 uses the older Phison E16 controller with DDR3 DRAM, rated at 4,900/3,600 MB/s and 200 TBW. The Crucial P3 uses the newer Phison E21T controller without DRAM (HMB only), rated at 3,500/3,000 MB/s and 220 TBW. The S92 has higher peak read speeds and a DRAM cache, which helps with read latency; the P3 has a more modern controller with lower power draw and slightly better endurance. In practice, both are budget QLC drives best suited as secondary storage. The S92 wins on throughput and DRAM; the P3 wins on efficiency and the Crucial brand's broader retail support.

Technically yes, but it is not recommended unless your budget is extremely tight and you understand the trade-offs. The 4,900 MB/s reads and DRAM cache mean Windows will boot and launch applications quickly. The problem is endurance and sustained write performance: an OS drive generates constant background writes — logs, temp files, browser caches, swap — that can accumulate to 20—30 GB per day before any user data. Over a 5-year warranty period, that alone accounts for 36—55 TBW, or 18—28% of the drive's rated endurance. Add software installs and user data and the endurance headroom shrinks quickly. A TLC drive with 600-plus TBW is a safer and more future-proof boot drive choice for only a modest price increase.