Fully-depleted SOI CMOS technology for low-voltage, low-power mixed digital/analog/microwave circuits

Flandre, Denis;Colinge, JP.;Chen, J.;De Ceuster, D;Silveira, F.;et.al.
(1999) Analog Integrated Circuits and Signal Processing — Vol. 21, n° 3, p. 213-228 (1999)

Files

No attached file found for this publication.

Details

Authors
  • Author
  • Colinge, JP.UCLouvain
    Author
  • Chen, J.UCLouvain
    Author
  • De Ceuster, DUCLouvain
    Author
  • Eggermont, JP.UCLouvain
    Author
  • Ferreira, LUCLouvain
    Author
  • Gentinne, B.UCLouvain
    Author
  • Jespers, PGA.UCLouvain
    Author
  • Viviani, AUCLouvain
    Author
  • Gillon, R.UCLouvain
    Author
  • Author
  • Vander Vorst, AndréUCLouvain
    Author
  • Vanhoenacker-Janvier, DanielleUCLouvain
    Author
  • Silveira, F.Universidad de la Republica Casilla de Correos, Uruguay
    Author
Show more
Abstract
This paper demonstrates that fully-depleted (FD) silicon-on-insulator (SOI) technology offers unique opportunities in the field of low-voltage, low-power CMOS circuits. Beside the well-known reduction of parasitic capacitances due to dielectric isolation, FD SOI MOSFETs indeed exhibit near-ideal body factor, subthreshold slope and current drive. These assets are both theoretically and experimentally investigated. Original circuit studies then show how a basic FD SOI CMOS process allows for the mixed fabrication and operation under low supply voltage of analog, digital and microwave components with properties significantly superior to those obtained on bulk CMOS. Experimental circuit realizations support the analysis.
Affiliations

Citations

Flandre, D., Colinge, JP., Chen, J., De Ceuster, D., Eggermont, JP., Ferreira, L., Gentinne, B., Jespers, PGA., Viviani, A., Gillon, R., Raskin, J.-P., Vander Vorst, A., Vanhoenacker-Janvier, D., & Silveira, F. (1999). Fully-depleted SOI CMOS technology for low-voltage, low-power mixed digital/analog/microwave circuits. Analog Integrated Circuits and Signal Processing, 21(3), 213-228. https://doi.org/10.1023/A:1008321919587 (Original work published 1999)