Revolutionizing Chip Technology: Samsung Reveals Backside Power Delivery Method for Future Chips

In a groundbreaking announcement at the VLSI Symposium held in Japan, Samsung Electronics unveiled its latest innovation in power delivery technology. The new method, known as Backside Power Delivery Network (BSPDN), promises to revolutionize chip design by improving area utilization and power delivery efficiency. Samsung’s disclosure marks a significant milestone in the industry, as they become the first company to reveal the metrics and results of this pioneering technique.

Samsung’s Disclosure at the VLSI Symposium

At the highly regarded VLSI Symposium, Samsung Electronics took the opportunity to illustrate the benefits of the BSPDN method. By presenting detailed metrics and data, the company showcased the remarkable achievements made in both area reduction and power delivery enhancement.

Area reduction achieved

One of the key highlights of Samsung’s BSPDN innovation is the impressive area reduction it offers. By implementing this method, the company was able to reduce the required chip area by a staggering 14.8% compared to the traditional approach. This reduction provides Samsung with the opportunity to utilize the freed-up space to incorporate additional components, such as transistors, driving overall performance gains.

Performance benefits of area reduction

The area reduction achieved through BSPDN has far-reaching implications for chip performance. With more space available on the die, chip designers can integrate additional components, improving functionality and delivering faster processing speeds. This enhancement opens up new possibilities for innovation in a wide range of applications, from mobile devices to high-performance computing.

Wire length reduction and improved power delivery

In addition to area reduction, Samsung’s BSPDN method also yields significant benefits through wire length reduction. By optimizing the power delivery network on the backside of the chip, the company achieved a commendable wire length reduction of 9.2%. This reduction translates into decreased resistance and improved power delivery efficiency, ensuring stable and reliable operation of the semiconductor device.

Samsung leads the way in disclosure

Samsung’s disclosure of the BSPDN method at the VLSI Symposium demonstrates its leadership in pushing the boundaries of chip design and manufacturing. By sharing its findings, the company contributes to the collective knowledge of the industry and fosters further innovation in power delivery techniques.

Intel’s Similar PowerVia Method and Integration Plans

Not long after Samsung’s revelation, Intel also disclosed its own power delivery innovation called “PowerVia.” Intel intends to incorporate this method into its Intel 20A nodes, achieving an impressive 90% chip utilization rate. The company has already announced plans to utilize PowerVia in their upcoming Arrow Lake CPUs, slated for release in 2024. Intel’s utilization of this methodology emphasizes its significance and potential for industry-wide adoption.

Samsung’s Future Plans for BSPDN Integration

While Samsung’s disclosure of the BSPDN method showcases its remarkable capabilities, the company has not yet revealed its concrete plans for integrating this technology into its future processes. However, based on the information available, it is expected that next-generation processes will gradually incorporate BSPDN after Intel’s initial implementation.

Samsung’s unveiling of the BSPDN method at the VLSI Symposium has ushered in a new era of power delivery innovation in chip design. The remarkable achievements in area reduction and power delivery enhancement present numerous benefits, including increased performance, improved power efficiency, and the potential for incorporating more features into semiconductor devices — all contributing to a faster and more advanced technological landscape. As the industry eagerly awaits the adoption of BSPDN and similar advancements, it is clear that Samsung and Intel’s breakthroughs lay the foundation for a promising future in microelectronics.

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