5nm nanosheet transistors cut power by 75%
June 05, 2017 // By Nick Flaherty, eeNews
Researchers at IBM have developed a practical way to build transistors on a 5nm process that provides a reduction in power consumption of up to 75% or a performance boost of 40% for the same power.
Instead of using FinFET structures, engineers at the IBM-led Research Alliance at the SUNY Polytechnic Institute Colleges of Nanoscale Science and Engineering’s NanoTech Complex in Albany, NY, used a ‘gate-all-around’ (GAA) built with silicon nanosheets. For the last ten years IBM has been working on nanosheets where each 2D layer is one atom thick and stacked layers build up the structure of the transistor.
This enabled the first practical use of extreme UV (EUV) process technology at research partner GLOBAL FOUNDRIES as the nanosheets can be more easily aligned to build up the devices. This provides a 40% performance boost at fixed power over current 10nm FinFET devices, or a 75% power saving for the same performance.
To read the full article, click here
Related Semiconductor IP
- Hybrid Memory Cube Verification IP
- nQrux® Root of Trust IP
- AXI to UCIe Bridge IP
- UCIe 2.x Controller IP
- SWI3S (SoundWire I3S Interface) Peripheral Controller Core IP
Related News
- SureCore announces low power cryogenic memory technology that could help dramatically cut data centre power usage
- PLDA Announces Major PCIe 5.0 Design Win on Cutting Edge 5nm Process Node
- Capacity Cuts and Surging Demand for AI Power ICs Set Stage for Mature-Node Foundry Price Increases
- Microchip develops new flash technology to cut cost of re-programmable MCUs
Latest News
- RaiderChip’s Edge NPU reaches more than 50 Generative AI Models with the addition of Qwen3.8-27B
- Aion Silicon Named Design Solution Associate in New Rapidus CORE Ecosystem for 2nm Semiconductors
- Arteris Wins Funding to Expand Hardware Design Supply Chain Security Assurance for the Trusted and Assured Microelectronics Program
- UMC Reports Sales for September 2026
- LUBIS EDA Launches FormalOS: Infrastructure for Systematic, Scalable Formal Verification