Organic and Molecular Electronics (eBook)

From Principles to Practice

Michael C. Petty (Autor)

eBook Download: EPUB

2018 | 2. Auflage
John Wiley & Sons (Verlag)
978-1-118-87925-2 (ISBN)

Infos

An introduction to the interdisciplinary subject of molecular electronics, revised and updated

The revised second edition of Organic and Molecular Electronics offers a guide to the fabrication and application of a wide range of electronic devices based around organic materials and low-cost technologies. Since the publication of the first edition, organic electronics has greatly progressed, as evidenced by the myriad companies that have been established to explore the new possibilities.

The text contains an introduction into the physics and chemistry of organic materials, and includes a discussion of the means to process the materials into a form (in most cases, a thin film) where they can be exploited in electronic and optoelectronic devices. The text covers the areas of application and potential application that range from chemical and biochemical sensors to plastic light emitting displays. The updated second edition reflects the recent progress in both organic and molecular electronics and:

• Offers an accessible resource for a wide range of readers
• Contains a comprehensive text that covers topics including electrical conductivity, optical phenomena, electroactive organic compounds, tools for molecular electronics and much more
• Includes illustrative examples based on the most recent research
• Presents problems at the end of each chapter to help reinforce key points

Written mainly for engineering students, Organic and Molecular Electronics: From Principles to Practice provides an updated introduction to the interdisciplinary subjects of organic electronics and molecular electronics with detailed examples of applications. 

MICHAEL C. PETTY, Emeritus Professor of Engineering, University of Durham, UK. Professor Petty has published extensively in the areas of organic electronics and molecular electronics and has lectured worldwide in these subjects. He was formerly President of the International Society for Molecular Electronics and BioComputing, and was a previous Chairman of the School of Engineering at Durham University.

Textauszug

Symbols and Abbreviations

A	Hamaker constant

A

acceptor

AC	alternating current

AES	Auger electron spectroscopy

AFLC	antiferroelectric liquid crystal

AFM	atomic force microscopy

ALD	atomic layer deposition

AmI	ambient intelligence

amu	atomic mass unit

ANN	artificial neural network

ATP	adenosine triphosphate

ATR	attenuated total reflection

au	arbitrary units

B, B	magnetic field (T)

BEDT‐TTF or ET

bis(ethylenedithio)tetrathiafulvalene

BHJ	bulk heterojunction

BCS	Bardeen, Cooper and Schrieffer

c	molecular concentration (mol m−3)

C	capacitance (F)

CAD	computer‐aided drawing

CB	conduction band

CCD	charge‐coupled device

cd

candela

CFM	chemical force microscope

CGS	centimetre gram second

CIE	Commission International de l'Eclairage

CMOS	complementary metal‐oxide‐semiconductor

CRI	colour‐rendering index

CRN	continuous random network

CT	charge transfer

CVD	chemical vapour deposition

dhkl	interplanar spacing (m)

D

donor

D	diffusion coefficient (m2 s−1)

D, D	electric displacement (C m−2)

DC	direct current

DMeFc

decamethyl‐ferrocene

DMSO	dimethyl sulfoxide

DNA	dioxyribonucleic acid

DOBAMBC

p‐decyloxybenzylidene‐p′−amino‐2‐methylbutylcinnamate

DPN	dip‐pen nanolithography

DRAM	Dynamic Random Access Memory

DVD	Digital Video (or Versatile) Disc

E	energy (J)

E, E	electric field (V m−1)

E c	conduction band edge (J or eV)

E F	Fermi energy (J or eV)

EIL	electron injection layer

EL	electroluminescent (or electroluminescence)

EM	electromagnetic

EML	emissive layer

ENFET

enzyme field effect transistor

ENIAC

Electronic Numerical Integrator and Computer

ESR	electron spin resonance

ETL	electron transport layer

E v	valence band edge (J or eV)

EXAFS

extended X‐ray absorption fine structure

FET	Field Effect Transistor

FLC	ferroelectric liquid crystal

FLOPS

FLoating‐point Operations Per Second

FMM	force modulation microscope

FPGA	field‐programmable gate array

G	conductance (S or Ω−1)

GMR	giant magnetoresistance

GPS	Global Positioning System

GSM	Global System for Mobile communications

H, H	magnetizing field (A m−1)

H c	coercive field

HCl	hydrochloric acid

HDTTF

hexadecanolyl tetrathiafulvalene

HIL	hole injection layer

HOMO	highest occupied molecular orbital

HTL	hole transport layer

I	electric current (A)

IC	integrated circuit

IDT	indacenodithiophene

IID

isoindigo

IMFET

immuno field effect transistor

IoT	Internet of Things

IR

infrared

ISFET

ion‐sensitive field effect transistor

ITO	indium–tin‐oxide

ITRS	International Technology Roadmap for Semiconductors

J

joule

j

J	electric current density (A m−2)

k	wavevector (m−1)

k B	Boltzmann’s constant

LASER

light amplification by stimulated emission of radiation

LB	Langmuir–Blodgett

LbL	Layer‐by‐Layer

LCD	liquid crystal display

LEC	light‐emitting electrochemical cell

LED	light‐emitting diode

LFM	lateral force microscope

lm

lumen

LSI	large‐scale integrated circuit

LUMO	lowest unoccupied molecular orbital

M	molecular weight

M, M	magnetization (A m−1)

MBE	molecular beam epitaxy

MEH‐PPV

poly[2‐methoxy‐5‐(2‐ethylhexyloxy)‐1,4‐phenylenevinylene]

MEMS	Micro‐Electro‐Mechanical System

MFM	magnetic force microscope

MIM	metal‐insulator‐metal

MIS	metal–insulator–semiconductor

MISFET

metal–insulator–semiconductor field effect transistor

MLD	molecular layer deposition

mm	magnetic dipole moment (A m−2)

MOCVD

metalorganic chemical vapour deposition

MOS	metal–oxide–semiconductor

MOSFET

metal–oxide–semiconductor field effect transistor

MPP	maximum power point (for a PV device)

MPU	microprocessor unit

M r	remanent magnetization (A m−1)

MRAM	magnetic random access memory

mRNA	messenger RNA

MTDATA

4,4′,4″‐tris[phenyl(m‐tolyl)amino]triphenylamine

MWNT	multiwall (carbon) nanotube

n	refractive index

n	number per unit volume or concentration (m−3)

n′	real part of refractive index

n″	imaginary part of refractive index

NAD	nicotinamide adenine...

Produkt-Details

• Erscheint lt. Verlag: 29.10.2018
• Sprache: englisch
• Themenwelt: Naturwissenschaften ► Chemie
• Themenwelt: Technik ► Elektrotechnik / Energietechnik
• Themenwelt: Technik ► Maschinenbau
• Schlagworte: applications of organic and molecular electronics • beyond Moore’s laws • Carbon Based Materials • Electrical & Electronics Engineering • electronic devices based around organic materials and low-cost technologies • Electronic materials • Elektronische Materialien • Elektrotechnik u. Elektronik • evolution of microelectronics • guide to organic and molecular electronics • Halbleiterphysik • Materials Science • Materialwissenschaften • Moore’s laws • new possibilities of organic and molecular electronics • Organic electronics • organic materials and electronics • Organische Elektronik • Physics • Physik • Practices of organic and molecular electronics • Principles of Organic and Molecular Electronics • progress in organic and molecular electronics • recent research on organic and molecular electronics • resource to organic and molecular electronics • scope of organic and molecular electronics • Semiconductor physics • solutions to organic and molecular electronics • text on organic and molecular electronics • the physics and chemistry of organic materials
• ISBN-10: 1-118-87925-2 / 1118879252
• ISBN-13: 978-1-118-87925-2 / 9781118879252