ORICO e7400 M.2 NVMe SSD - 2TB / PS5 Compatible / PCIe Gen4.0 x4 / Up to 7,400MB/s Read and 6,600MB/s Write Speeds / ORICO-e7400-2TB-GD-BP + FREE DELIVERY !

The ORICO e7400 2TB M.2 NVMe SSD connects over PCIe Gen 4 x4 and reaches up to 7,400MB/s read and 6,600MB/s write. That bandwidth turns into near-instant boots, fast level loads and rapid file copies on a PC or a console. It is PS5 compatible and installs by sliding the M.2 stick into the slot and securing the screw.

The e7400 is an M.2 NVMe solid-state drive running on a PCIe 4.0 x4 link, the full-width Gen4 path rather than a narrower connection. This 2TB unit is one of four capacities ORICO builds in the range, so the same drive design covers a boot disk and a full library drive alike.

Sequential reads reach up to 7,400MB/s on PCIe 4.0, and that is the figure governing how fast large game assets and project files come off the drive. The result is a stutter-free workflow across gaming, content creation and everyday tasks, with the system rarely left waiting on storage.

The labelled read and write figures come from ORICO laboratory tests under specific conditions. Actual speeds vary with the hardware in the system, the software doing the copying and the size of the files being moved, so thousands of small files will never match a single large sequential transfer.

Displayed capacity differs from the nominal value because the factory counts in decimal while the operating system counts in binary. Flash storage typically shows about 90% of nominal once formatted, so a 16GB nominal drive reports roughly 14.4GB usable. Backing up important files stays sensible practice regardless of the drive.

Writes are rated up to 6,600MB/s, the number that counts when data is going onto the drive rather than coming off it. That is what shortens game installs, bulk file copies and video exports, and it is the side of the specification a Gen 3 platform limits first.

Each ORICO SSD goes through strict testing at the factory, the step that filters out modules failing to hold their rated behaviour. On a 2TB drive holding an operating system and a large installed library, consistency between units matters as much as the headline speed.

The e7400 supports TRIM, S.M.A.R.T. and other optimisation technologies aimed at long-term stability. TRIM stops write performance degrading as the drive fills and empties over time, and S.M.A.R.T. exposes the drive's own health data to monitoring tools rather than keeping it hidden.

Installation takes two steps: slide the M.2 stick into the slot at an angle, then secure it with the retaining screw. There are no cables, brackets or drive bays involved, which is why an M.2 SSD is the least disruptive storage upgrade in a desktop, a laptop or a console expansion bay.

The e7400 is intended for desktops, laptops and game consoles, and it works with mainstream operating systems, so it is not tied to a single platform. A drive bought for a PC can be redeployed into a console or a second machine later without changing the plan around it.

HMB and a dynamic SLC cache accelerate boots, application launches and game loads while sustaining high read and write speeds. HMB uses a portion of system memory for the drive's mapping tables, and the SLC cache absorbs bursts of writes so a large install does not stall part-way through.

The e7400 series spans 512GB to 4TB, matching everyday needs, creative workloads and large game libraries from one drive design. Capacity choice comes down to how much stays installed at once, and 2TB sits at the point where a system disk and a full game library can share a single module.

Reliable 3D NAND stacks memory cells in layers and allows access across them, which is what reduces latency and improves responsiveness compared with a flatter arrangement. That architecture is the foundation under the drive's sustained throughput rather than a marketing label on the packaging.

The MAP1602 controller supports 2400MT/s NAND without overclocking and reliably drives the full PCIe Gen4 x4 interface. Keeping the NAND inside its rated envelope instead of pushing it past specification is what makes performance consistent across a long session rather than a short benchmark run.

The PCIe 4.0 x4 interface is where faster startups, quicker application loads and high-speed file transfers come from on a supported board. The extra per-lane bandwidth over Gen 3 raises the ceiling on everything the drive does, which is why the interface matters alongside the flash behind it.

A slim graphene heat spreader handles thermal control on the module, dispersing heat efficiently without adding bulk to the drive. Keeping the cooling thin is what allows an intelligent thermal design on a module that still has to fit desktops, laptops and consoles.

At 2TB there is room for large photos, videos and school or work projects to sit on the drive together, and they move without lag when opened or copied. Editing, streaming and multitasking stay quick and reliable because the working files never have to be shuffled off to a slower disk first.

The e7400 works on PCIe Gen 3 too, running at that interface's speeds rather than refusing to fit. An older board is therefore not a barrier, and the drive reaches its full rated figures once it moves into a Gen 4 system, which makes it a safe purchase ahead of a rebuild.

Thermal control exists to prevent heat-related throttling, the point at which a fast drive quietly slows itself to cool down. The e7400's design keeps performance consistent through long transfers and extended sessions, which is where a sustained workload behaves differently from a short burst of activity.

The e7400 works with the PS5 as well as desktops and laptops, so one drive covers gaming, work and creative tasks across the machines in a household. That flexibility is the practical argument for an M.2 NVMe upgrade over storage locked to a single system.

Gen4 x4 throughput and 2TB of space suit three groups at once: gamers who want short level loads, creators moving large media files, and everyday users who simply want a machine that boots quickly. Ultra-fast transfers and low latency keep all three cases responsive rather than favouring one workload.