>
Eudaimonia: That Perfect Instant While Pedaling Your Bicycle
CHEMTRAIL WARFARE: Tom Renz Exposes the Military's SECRET Chemical Attacks on Americans
Founder Klaus Schwab to step down as World Economic Forum's chair
POWERFUL FRIDAY BROADCAST: Trump Goes On Total Warpath! 47 Just Axed The NSA & Cyber Command...
Watch the Jetson Personal Air Vehicle take flight, then order your own
Microneedles extract harmful cells, deliver drugs into chronic wounds
SpaceX Gigabay Will Help Increase Starship Production to Goal of 365 Ships Per Year
Nearly 100% of bacterial infections can now be identified in under 3 hours
World's first long-life sodium-ion power bank launched
3D-Printed Gun Components - Part 1, by M.B.
2 MW Nuclear Fusion Propulsion in Orbit Demo of Components in 2027
FCC Allows SpaceX Starlink Direct to Cellphone Power for 4G/5G Speeds
The more advanced 2nm process is also reported to have made significant progress. The 2nm process will start mass production around 2023 to 2024.
TSMC thinks risk trial production yield in the second half of 2023 can reach 90%. The 3nm and 5nm processes use FinFET. TSMC 2nm process uses a new multi-bridge channel field effect transistor (MBCFET) architecture.
TSMC plans to switch to GAAFET (gate all around) for 2nm chips. FINFET doesn't surround a channel on all sides. GAA surrounds a channel using a Gate. The latter method makes current leakage almost negligible.
The N5 node that TSMC is working with can use 5nm for up to 14 layers. The 3nm process node could deliver up to a 15% hike in power at the same transistor count as 5nm, and up to a 30% reduction in power use (at the same clock speeds and complexity).
Dutch lithography company ASML says that at 3nm, lithography can be used on more than 20 layers.
Intel is lagging TSMC in reducing transistor size. Intel has published a roadmap that reaches 1.4 nanometers in 2029.