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Samsung's new 2 nm foundry process to cut chip size by 17%

Intel is tipped to become the first chipmaker to apply the backside power delivery network to the 2-nanometer node

www.kedglobal.com, Aug. 22, 2024 – 

A new contract chipmaking technology, dubbed the backside power delivery network (BSPDN), will reduce the size of a 2-nanometer chip by 17%, compared with the traditional front-end power delivery technology, said Samsung Electronics Co.'s foundry business executive on Thursday.

The BSPDN, which Samsung is set to apply for mass production of the 2 nm process from 2027, also improves performance and power efficiency by 8% and 15%, respectively, compared to the chips with the front-end power delivery networks, said Lee Sungjae, vice president and Foundry PDK Development Team at Samsung.

He outlined the technological prowess of BSPDN in a keynote speech at Siemens EDA Forum 2024. It was the first time for a Samsung foundry business executive to give a detailed account of its BSPDN technology in public.

BSPDN is called a next-generation chip foundry technology. It places power rails on the back of the semiconductor wafer to eliminate bottlenecks between the power and signal lines, allowing for smaller chips.

Contract chipmakers are gearing up to adopt the advanced chipmaking process. Leading the pack, Intel plans to produce chips with BSPDN on the Intel 20A process, known as a 2 nm node, within the year. It dubbed its BSPDN technology as PowerVia.

TSMC, which controls 62% of the global foundry market, said it plans to introduce the BSPDN to its 1.6 nm and below process nodes around the end of 2026.

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