2 S/mm transconductance InAs-inserted-channel modulation doped field effect transistors with a very close gate-to-channel separation of 14.5 nm

We have achieved a very small gate-to-channel separation d gi +Δ d of 14.5 nm for InAs-inserted-channel modulation doped field effect transistors (InAs-MODFETs) with the optimum control of wet-chemically recessed groove for gate electrodes. Excellent output characteristics as well as high channel cu...

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Veröffentlicht in:Japanese Journal of Applied Physics 1997-04, Vol.36 (4B), p.L470-L472
Hauptverfasser: XU, D, HEISS, H, SEXL, M, KRAUS, S, BÖHM, G, TRÄNKLE, G, WEIMANN, G, ABSTREITER, G
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container_end_page L472
container_issue 4B
container_start_page L470
container_title Japanese Journal of Applied Physics
container_volume 36
creator XU, D
HEISS, H
SEXL, M
KRAUS, S
BÖHM, G
TRÄNKLE, G
WEIMANN, G
ABSTREITER, G
description We have achieved a very small gate-to-channel separation d gi +Δ d of 14.5 nm for InAs-inserted-channel modulation doped field effect transistors (InAs-MODFETs) with the optimum control of wet-chemically recessed groove for gate electrodes. Excellent output characteristics as well as high channel current more than 1 A/mm can still be retained. The optimum wet-chemically fabricated deep recess groove leads to an absence of the influences of surface potential. Combining the Γ-gate fabrication technique, d gi +Δ d =14.5 nm produces a maximum extrinsic transconductance of 1.95 S/mm at a drain bias of 1.5 V. This is attributed to the very small gate-to-channel distance, the optimum gate fabrication technology, and the optimum channel design as well.
doi_str_mv 10.1143/JJAP.36.L470
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subjects Applied sciences
Electronics
Exact sciences and technology
Semiconductor electronics. Microelectronics. Optoelectronics. Solid state devices
Transistors
title 2 S/mm transconductance InAs-inserted-channel modulation doped field effect transistors with a very close gate-to-channel separation of 14.5 nm
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