A Compendium of Logic Gates Based on Reconfigurable Three-Independent-Gate Transistors Realized in FDSOI Hardware

Research output: Contribution to journalResearch articleContributedpeer-review

Contributors

  • Juan P. Martinez - , NaMLab - Nanoelectronic materials laboratory gGmbH (Author)
  • Yuxuan He - , NaMLab - Nanoelectronic materials laboratory gGmbH (Author)
  • Giulio Galderisi - , NaMLab - Nanoelectronic materials laboratory gGmbH (Author)
  • Violetta Sessi - , Global Foundries Dresden (Author)
  • Niladri Bhattacharjee - , Global Foundries Dresden (Author)
  • Peter Baars - , Global Foundries Dresden (Author)
  • Kerstin Poenisch - , Global Foundries Dresden (Author)
  • Annekathrin Zeun - , Global Foundries Dresden (Author)
  • Konstantin Li - , Global Foundries Dresden (Author)
  • Fernando Koch - , Global Foundries Dresden (Author)
  • Binit Syamal - , Global Foundries Dresden (Author)
  • Thomas Mikolajick - , Chair of Nanoelectronics, NaMLab - Nanoelectronic materials laboratory gGmbH (Author)
  • Jens Trommer - , NaMLab - Nanoelectronic materials laboratory gGmbH (Author)

Abstract

This work presents the electrical characterization of sixteen different logic gates built entirely from three-independent-gate reconfigurable transistors. The circuits are fabricated on full-scale 300 mm wafers using the industrial 22 nm fully depleted silicon-on-insulator process of GlobalFoundries, with only minimal modifications to the baseline CMOS flow. The demonstrations include a reconfigurable 2-2 AND-OR-Inverter gate and a fully functional 1-bit adder comprising eight transistors. Quasi-static and transient on-wafer measurements confirm correct functionality and provide insight into the frequency limitations imposed by the current design and test setup. Finally, to explore scalability, a ripple-carry adder is simulated based on the experimentally realized 1-bit adder, illustrating how scaled devices and optimized layouts could enable low-power, CMOS-compatible applications.

Details

Original languageEnglish
JournalAdvanced electronic materials
Publication statusE-pub ahead of print - 23 Mar 2026
Peer-reviewedYes

External IDs

ORCID /0000-0003-3814-0378/work/211721443

Keywords

Keywords

  • ambipolar, digital circuits, process integration, reconfigurable electronics, Schottky barrier FET