DocumentCode :
1777694
Title :
Brain inspired high performance electronics on flexible silicon
Author :
Torres Sevilla, Galo Andres ; Rojas, Jhonathan Prieto ; Hussain, Muhammad Mustafa
Author_Institution :
Electr. & Math. Eng. Div., King Abdullah Univ. of Sci. & Technol., Mekkah, Saudi Arabia
fYear :
2014
fDate :
June 30 2014-July 3 2014
Firstpage :
1
Lastpage :
4
Abstract :
Brain´s stunning speed, energy efficiency and massive parallelism makes it the role model for upcoming high performance computation systems. Although human brain components are a million times slower than state of the art silicon industry components [1], they can perform 1016 operations per second while consuming less power than an electrical light bulb. In order to perform the same amount of computation with today´s most advanced computers, the output of an entire power station would be needed. In that sense, to obtain brain like computation, ultra-fast devices with ultra-low power consumption will have to be integrated in extremely reduced areas, achievable only if brain folded structure is mimicked. Therefore, to allow brain-inspired computation, flexible and transparent platform will be needed to achieve foldable structures and their integration on asymmetric surfaces. In this work, we show a new method to fabricate 3D and planar FET architectures in flexible and semitransparent silicon fabric without comprising performance and maintaining cost/yield advantage offered by silicon-based electronics.
Keywords :
MOSFET; elemental semiconductors; flexible electronics; low-power electronics; power consumption; silicon; 3D FET architectures; Si; asymmetric surfaces; brain folded structure; brain inspired high performance electronics; brain stunning speed; brain-inspired computation; electrical light bulb; energy efficiency; flexible silicon; high performance computation systems; human brain components; massive parallelism; planar FinFET architectures; planar MOSFETs; power station; semitransparent silicon fabric; silicon industry components; silicon-based electronics; transparent platform; ultra-fast devices; ultra-low power consumption; Fabrication; FinFETs; Logic gates; Performance evaluation; Silicon; Substrates; 3D flexible electronics; field effect tranisistor; flexible electronics; mono-crystallline silicon;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Ph.D. Research in Microelectronics and Electronics (PRIME), 2014 10th Conference on
Conference_Location :
Grenoble
Type :
conf
DOI :
10.1109/PRIME.2014.6872764
Filename :
6872764
Link To Document :
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