Harmonic distortion analysis of triple gate SOI nanowire MOSFETS down to 100 K
N/D
Tipo de produção
Artigo
Data de publicação
2017
Texto completo (DOI)
Periódico
Microelectronics Reliability
Editor
Texto completo na Scopus
Citações na Scopus
1
Autores
Paz B.C.
Doria R.T.
Casse M.
Barraud S.
Reimbold G.
Vinet M.
Faynot O.
Pavanello M.A.
Orientadores
Resumo
© 2017 Elsevier LtdThe linearity of triple gate nanowire transistors (NWs) implemented on a Silicon-On-Insulator (SOI) substrate is investigated in this work considering temperature (T) influence. The analysis is performed in long channel nanowire MOSFETs with different fin width (WFIN), from quasi-planar structures (WFIN = 10 μm) to narrow devices (9.5 nm), operating as single-transistor amplifiers from room temperature down to 100 K. The total, second and third order harmonic distortions (THD, HD2 and HD3, respectively) are extracted using the Integral Function Method (IFM). The analysis is divided in two parts. First, a fixed input signal is applied at the gate of the single-transistor amplifiers and, then, the output signal is fixed. Transport parameters such as effective mobility (μeff), mobility degradation coefficient (θ) and series resistance (RS) have been extracted down to 100 K and correlated to the distortion to explain linearity peaks behavior with temperature and fin width. Narrow transistors have shown improved linearity mainly due to higher intrinsic voltage gain (AV) considering the entire temperature range. Low temperature operation has shown to degrade the linearity characteristics of both wide and narrow NW MOSFETs.
Citação
PAZ, Bruna Cardoso; Doria, Rodrigo Trevisoli; CASSÉ, MIKAËL; BARRAUD, SYLVAIN; REIMBOLD, GILLES; VINET, MAUD; FAYNOT, OLIVIER; Pavanello, Marcelo Antonio. Harmonic distortion analysis of triple gate SOI nanowire MOSFETS down to 100 K. MICROELECTRONICS RELIABILITY, v. 79, p. 111-118, 2017.
Palavras-chave
Keywords
Harmonic distortion; Low temperature; Nanowires; SOI MOSFETs; Triple gate
Assuntos Scopus
Harmonic distortion analysis; Integral function method; Intrinsic voltage gains; Low temperatures; Quasi-planar structure; Silicon-on-insulator substrates; SOI-MOSFETs; Triple-gate