Semiconductor News & Analysis Feed

6 articles
2026-06-26
digitimes.com 2026-06-26
IBM's unveiling of sub-1nm chip technology at the 2026 VLSI symposium represents a significant breakthrough in semiconductor manufacturing, introducing the world's first 0.7nm transistor architecture built on the novel 3D Nanostack platform. This advancement addresses fundamental physical limitation
2026-06-26
marklapedus.substack.com 2026-06-26
IBM has unveiled its novel Nanostack transistor technology aimed at sub-1nm chips, marking a significant leap in semiconductor design beyond traditional 2D layouts. This 3D-like architecture vertically stacks and staggers transistors, enabling a density nearly twice that of IBM's 2nm chip, with near
2026-06-26
letsdatascience.com 2026-06-26
IBM unveiled the world's first sub-1 nanometer chip technology on June 25, 2026, introducing the 0.7nm (7 angstrom) Nanostack 3D transistor architecture. This breakthrough enables nearly 100 billion transistors on a fingernail-sized die—nearly double the density of IBM's 2nm chip from 2021. The desi
2026-06-25
www.datacenterknowledge.com 2026-06-25
IBM has made a significant breakthrough in sub-1-nanometer chip technology with its new NanoStack transistor architecture, promising enhanced computing performance, memory density, and energy efficiency. Unlike traditional process nodes, NanoStack focuses on a 3D integration approach that vertically
2026-06-25
morethanmoore.substack.com 2026-06-25
IBM announced its latest 0.7nm process node technology and introduced NanoStack, marking a significant step forward in the semiconductor industry's evolution beyond traditional Moore’s Law. Based on Gate-All-Around (GAA) architecture, the technology advances toward Complimentary FET (CFET) structure
2026-06-25
research.ibm.com 2026-06-25
IBM Research has introduced a breakthrough chip architecture called the nanostack, designed to overcome the spatial limitations of traditional two-dimensional scaling in semiconductor devices. By stacking silicon wafers and transistors vertically, this 3D approach dramatically increases transistor d