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  4. BSIM compact model of quantum confinement in advanced nanosheet FETs
 
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BSIM compact model of quantum confinement in advanced nanosheet FETs

ISSN
00189383
Date Issued
2020-02-01
Author(s)
Dasgupta, Avirup
Parihar, Shivendra Singh
Kushwaha, Pragya
Agarwal, Harshit
Kao, Ming Yen
Salahuddin, Sayeef
Chauhan, Yogesh Singh
Hu, Chenming
DOI
10.1109/TED.2019.2960269
Abstract
We propose a compact model for nanosheet FETs that take the effects of quantum confinement into account. The model captures the nanosheet width and thickness dependence of the electrostatic dimension, density of states, effective mass, subband energies, and threshold voltages and includes them in the charge calculation, resulting in an accurate terminal charge and current characteristics. The model has been implemented using Verilog-A in the BSIM-CMG framework for all simulations. It has been validated with band-structure calculation-based TCAD simulations as well as measured data. We have also highlighted the significance of quantum mechanical effects on analog and RF performance of the device.
Subjects
  • Bandgap

  • compact model

  • density of states (DO...

  • dimension

  • effective mass

  • gate-all-around

  • nanosheet

  • nanowire

  • quantum capacitance

  • SPICE

  • subband energy

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