Carbon Based Electronic Devices

For more than 50 years, silicon has dominated the electronics industry. However, this growth will come to an end, due to resources limitations. Thus, research developments need to focus to alternative materials, with higher performance and better functionality. Current research achievements have ind...

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Bibliographic Details
Main Author: Tagliaferro, Alberto (auth)
Other Authors: Charitidis, Costas (auth)
Format: Electronic Book Chapter
Language:English
Published: MDPI - Multidisciplinary Digital Publishing Institute 2020
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Online Access:DOAB: download the publication
DOAB: description of the publication
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245 1 0 |a Carbon Based Electronic Devices 
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520 |a For more than 50 years, silicon has dominated the electronics industry. However, this growth will come to an end, due to resources limitations. Thus, research developments need to focus to alternative materials, with higher performance and better functionality. Current research achievements have indicated that carbon is one of the promising candidates for its exploitation in the electronics industry. Whereas the physical properties of graphite and diamond have been investigated for many years, the potential for electronic applications of other allotropes of carbon (fullerenes, carbon nanotubes, carbon nanofibres, carbon films, carbon balls and beads, carbon fibers, etc), has only been appreciated relatively recently. Carbon-based materials offer a number of exciting possibilities for new applications of electronic devices, due to their unique thermal and electrical properties. However, the success of carbon-based electronics depends on the rapid progress of the fabrication, doping and manipulation techniques. In this Special Issue, we focus on both insights and advancements in carbon-based electronics. We will also cover various topics ranging from synthesis, functionalisation, and characterisation of carbon-based materials, for their use in electronic devices, including advanced manufacturing techniques, such as 3D printing, ink-jet printing, spray-gun technique, etc. 
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653 |a selectivity 
653 |a photosensor 
653 |a graphene oxide 
653 |a n/a 
653 |a carbon nanotube 
653 |a electronics 
653 |a Joule heating 
653 |a spray-on 
653 |a non-self-sustaining discharge 
653 |a carbon black 
653 |a higher performances 
653 |a carbon structure differentiation 
653 |a carbon nanofillers 
653 |a Liquid-Metal 
653 |a I-V characteristics 
653 |a self-powered sensors 
653 |a platinum (Pt) and palladium (Pd) nanoparticles 
653 |a additive manufacturing 
653 |a solution process 
653 |a humidity sensor 
653 |a carbon phase transition 
653 |a silver (Ag) 
653 |a supercapacitors 
653 |a ionization sensor array 
653 |a aerosol 
653 |a carbon Inks 
653 |a capacitance 
653 |a field emitters 
653 |a carbon nanofibres (CNFs) 
653 |a metal nanoparticles 
653 |a carbon nanofibers 
653 |a dodecylbenzene sulfonic acid (DBSA) doped polyaniline 
653 |a electrical aging 
653 |a revised Raman characterization 
653 |a carbon fibers 
653 |a contact resistance 
653 |a carbon nanotube (CNT) 
653 |a electron emission 
653 |a piezoresistive behavior 
653 |a mobility 
653 |a biochar 
653 |a spray-gun deposition 
653 |a finite-difference time-domain 
653 |a graphene 
653 |a mechanical impact 
653 |a transparent conducting electrode 
653 |a quantum electronic activation 
653 |a reduced graphene oxide 
653 |a TLM 
653 |a carbon nanotubes 
653 |a NOx 
653 |a honey 
653 |a supercapacitors (SCs) 
653 |a optoelectronic device 
653 |a active-screen plasma sputtering (ASPS) technology 
653 |a pressure sensitivity 
653 |a rheology 
653 |a carbon soot 
653 |a flexible electronics 
653 |a carbon-based material 
653 |a Ag nanoparticles 
653 |a printing 
653 |a carbon-based materials 
653 |a functionalization 
653 |a flexible wearable devices 
653 |a sensors 
653 |a porous electrode 
653 |a ReRAM 
653 |a inkjet printer inks 
653 |a Galinstan 
653 |a electrical conductivity 
653 |a carbon fibres 
653 |a NEMS quality 
653 |a flexible electrode 
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