Can Samsung’s 400-Layer V-NAND Redefine Storage Technology?

Samsung is gearing up to revolutionize storage technology with its next-generation 400-layer Vertical NAND (V-NAND). The new memory architecture aims to significantly enhance data storage capacity and reliability. This initiative follows Samsung’s recent mass production of its 9th-gen V-NAND, which adopted Quad-Level Cell (QLC) technology to improve performance, capacity, and dependability. The upcoming 10th-gen V-NAND is expected to launch in 2026, boasting a 400-layer configuration—an impressive 43% increase over its predecessor’s 280 layers. To accomplish this feat, Samsung will employ Bonding Vertical (BV) NAND technology, which diverges from the existing Circuit on Periphery (CoP) design. While CoP places peripheral circuits atop the memory stack, the BV method involves initially manufacturing memory and peripheral circuits separately and then vertically bonding them. This approach minimizes circuit damage during stacking and could achieve nearly 60% higher bit density, resulting in substantial capacity increases within the same physical space. Samsung’s method is akin to YMTC’s Xtacking and Kioxia-Western Digital’s CMOS Bonded Array technologies.

Redefining Storage Technology

Samsung’s leap to a 400-layer V-NAND architecture marks a significant milestone in the storage technology landscape. By adopting the BV method, Samsung has the potential to redefine storage capabilities, enabling higher density without increasing the physical footprint of storage devices. This transformation is not just about adding more layers; it introduces a way to produce more memory cells within the same silicon wafer area, thereby making data storage more efficient. Samsung’s new V-NAND technology is expected to improve read and write speeds, which are crucial for applications requiring fast data access, such as high-performance computing and real-time data processing.

Beyond capacity, the new architecture also promises enhanced reliability and durability. The separation of memory and peripheral circuits reduces the likelihood of damage during manufacturing, which in turn could lead to longer-lasting storage solutions. For enterprises relying on vast amounts of data, this reliability translates into lower maintenance costs and reduced downtime. As the digital world continues to produce an exponential amount of data, innovations like Samsung’s 400-layer V-NAND will be pivotal in meeting future storage demands. The challenge will be in seamlessly integrating this advanced technology into existing storage systems and ensuring compatibility with current and future data management frameworks.

Future Innovations

Samsung is set to transform storage technology with its upcoming 400-layer Vertical NAND (V-NAND). This new memory design aims to vastly improve data storage capacity and reliability. This advancement comes after Samsung’s recent release of its 9th-generation V-NAND, which utilized Quad-Level Cell (QLC) technology to boost performance, capacity, and reliability. The forthcoming 10th-generation V-NAND, expected in 2026, will feature a 400-layer structure, a notable 43% increase from its current 280 layers. To achieve this, Samsung will implement Bonding Vertical (BV) NAND technology, which differs from the current Circuit on Periphery (CoP) design. While CoP places peripheral circuits on top of the memory stack, the BV method involves separately manufacturing memory and peripheral circuits, then bonding them vertically. This minimizes circuit damage during stacking and could enhance bit density by nearly 60%, leading to significantly increased capacity in the same physical space. Samsung’s approach is similar to YMTC’s Xtacking and Kioxia-Western Digital’s CMOS Bonded Array technologies.

Explore more

How AI Agents Work: Types, Uses, Vendors, and Future

From Scripted Bots to Autonomous Coworkers: Why AI Agents Matter Now Everyday workflows are quietly shifting from predictable point-and-click forms into fluid conversations with software that listens, reasons, and takes action across tools without being micromanaged at every step. The momentum behind this change did not arise overnight; organizations spent years automating tasks inside rigid templates only to find that

AI Coding Agents – Review

A Surge Meets Old Lessons Executives promised dazzling efficiency and cost savings by letting AI write most of the code while humans merely supervise, but the past months told a sharper story about speed without discipline turning routine mistakes into outages, leaks, and public postmortems that no board wants to read. Enthusiasm did not vanish; it matured. The technology accelerated

Open Loop Transit Payments – Review

A Fare Without Friction Millions of riders today expect to tap a bank card or phone at a gate, glide through in under half a second, and trust that the system will sort out the best fare later without standing in line for a special card. That expectation sits at the heart of Mastercard’s enhanced open-loop transit solution, which replaces

OVHcloud Unveils 3-AZ Berlin Region for Sovereign EU Cloud

A Launch That Raised The Stakes Under the TV tower’s gaze, a new cloud region stitched across Berlin quietly went live with three availability zones spaced by dozens of kilometers, each with its own power, cooling, and networking, and it recalibrated how European institutions plan for resilience and control. The design read like a utility blueprint rather than a tech

Can the Energy Transition Keep Pace With the AI Boom?

Introduction Power bills are rising even as cleaner energy gains ground because AI’s electricity hunger is rewriting the grid’s playbook and compressing timelines once thought generous. The collision of surging digital demand, sharpened corporate strategy, and evolving policy has turned the energy transition from a marathon into a series of sprints. Data centers, crypto mines, and electrifying freight now press