AuthorsRojas, Jhonathan Prieto
Sevilla, Galo T.
Ghoneim, Mohamed T.
Inayat, Salman Bin
Hussain, Aftab M.
Hussain, Muhammad Mustafa
KAUST DepartmentIntegrated Nanotechnology Lab
Computer, Electrical and Mathematical Sciences and Engineering (CEMSE) Division
Electrical Engineering Program
KAUST Grant NumberCRG-1-2012-HUS-008
Online Publication Date2014-02-03
Print Publication Date2014-02-25
Permanent link to this recordhttp://hdl.handle.net/10754/563403
MetadataShow full item record
AbstractIn today's traditional electronics such as in computers or in mobile phones, billions of high-performance, ultra-low-power devices are neatly integrated in extremely compact areas on rigid and brittle but low-cost bulk monocrystalline silicon (100) wafers. Ninety percent of global electronics are made up of silicon. Therefore, we have developed a generic low-cost regenerative batch fabrication process to transform such wafers full of devices into thin (5 μm), mechanically flexible, optically semitransparent silicon fabric with devices, then recycling the remaining wafer to generate multiple silicon fabric with chips and devices, ensuring low-cost and optimal utilization of the whole substrate. We show monocrystalline, amorphous, and polycrystalline silicon and silicon dioxide fabric, all from low-cost bulk silicon (100) wafers with the semiconductor industry's most advanced high-κ/metal gate stack based high-performance, ultra-low-power capacitors, field effect transistors, energy harvesters, and storage to emphasize the effectiveness and versatility of this process to transform traditional electronics into flexible and semitransparent ones for multipurpose applications. © 2014 American Chemical Society.
SponsorsWe would like to thank the KAUST OCRF Competitive Research Grant CRG-1-2012-HUS-008 and the staff of the KAUST Advanced Nanofabrication Facilities for their technical support during the development of this project.
PublisherAmerican Chemical Society (ACS)
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