Organic electronics : emerging concepts and technologies /

An overview of the tremendous potential of organic electronics, concentrating on those emerging topics and technologies that will form the focus of research over the next five to ten years. The young and energetic team of editors with an excellent research track record has brought together internati...

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Bibliographic Details
Other Authors:	Cicoira, F. (Fabio) (Editor), Santato, Clara (Editor)
Format:	eBook
Language:	English
Published:	Weinheim, Germany : Wiley-VCH, ©2013. Weinheim : 2013.
Subjects:	Electronic polymers. Organic semiconductors. Organic thin films. Organic field-effect transistors. Biotechnology > Materials. Organic electronics. Printed circuits. Electronics > Materials.
Online Access:	Connect to the full text of this electronic book

Table of Contents:

Machine generated contents note: 1.1.Introduction / Albertus P.H.J. Schenning / Irén Fischer
1.2.Nanoparticles Based on Fluorene Polymers / Albertus P.H.J. Schenning / Irén Fischer
1.2.1.Optoelectronic Applications / Albertus P.H.J. Schenning / Irén Fischer
1.2.1.1.Characterization of Nanoparticles / Albertus P.H.J. Schenning / Irén Fischer
1.2.1.2.Nanoparticle Film Fabrication and Characterization / Albertus P.H.J. Schenning / Irén Fischer
1.2.1.3.OLEDs / Albertus P.H.J. Schenning / Irén Fischer
1.2.1.4.Solar Cell Applications / Albertus P.H.J. Schenning / Irén Fischer
1.2.2.Imaging and Sensing Applications / Albertus P.H.J. Schenning / Irén Fischer
1.2.2.1.Characterization of Nanoparticles / Albertus P.H.J. Schenning / Irén Fischer
1.2.2.2.Biosensing / Albertus P.H.J. Schenning / Irén Fischer
1.2.2.3.Bioimaging / Albertus P.H.J. Schenning / Irén Fischer
Note continued: 1.3.Nanoparticles Based on Fluorene Oligomer / Albertus P.H.J. Schenning / Irén Fischer
1.3.1.Characterization / Albertus P.H.J. Schenning / Irén Fischer
1.3.2.Nanoparticles for Sensing and Imaging / Albertus P.H.J. Schenning / Irén Fischer
1.4.Conclusions and Perspectives / Albertus P.H.J. Schenning / Irén Fischer
References / Albertus P.H.J. Schenning / Irén Fischer
2.1.Introduction / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.2.Conducting Polymers for Biological Applications / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.2.1.Unique Benefits of Conducting Polymers / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.2.2.Biocompatibility of Conducting Polymers / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.2.3.Electrochemical Properties and Tools / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
Note continued: 2.3.Conducting Polymers to Control Cells / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.1.Establishing Conducting Polymers as Cell Culture Environments / Jonathan Rivnay / Leslie H. Jimison / Róisin M. Owens
2.3.2.Optimizing Conducting Polymers for Cell Culture / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.3.Controlling Cell Adhesion via Redox State / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.3.1.Redox Switches / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.3.2.Redox Gradients / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.3.3.Protein Characterization as a Function of Redox State / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.4.Direct Patterning of Proteins to Control Cell Adhesion / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.5.Controlling Cell Growth and Development / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
Note continued: 2.3.5.1.Electrical Stimulation to Promote Neurite Formation and Extension / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.5.2.Electrical Stimulation to Promote Muscle Cell Proliferation and Differentiation / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.5.3.Alignment Control via Topographical Cues / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.5.4.Incorporation of Biomolecules to Control Differentiation / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.6.Organic Electronic Ion Pumps / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.7.On-Demand Cell Release / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.8.Conducting Polymer Actuators / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.3.9.Optoelectronic Control of Cell Behavior / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
Note continued: 2.4.Conducting Polymers to Monitor Cells / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.4.1.Conducting Polymers to Monitor Neuronal Function / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.4.1.1.Conducting Polymer Electrodes / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.4.1.2.Transistors / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.4.2.Conducting Polymers to Monitor Behavior of Nonelectrically Active Cells / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
2.5.Conclusions / Róisin M. Owens / Jonathan Rivnay / Leslie H. Jimison
References / Leslie H. Jimison / Róisin M. Owens / Jonathan Rivnay
3.1.Introduction / Peter Kjäll / Salvador Gomez-Carretero
3.2.Regenerative Medicine and Biomedical Devices / Peter Kjäll / Salvador Gomez-Carretero
3.2.1.Scaffolds, Signaling Interfaces, and Surfaces for Novel Biomedical Applications / Peter Kjäll / Salvador Gomez-Carretero
Note continued: 3.2.1.1.Scaffolds and Surface Modulation / Peter Kjäll / Salvador Gomez-Carretero
3.2.1.2.Biomolecule Presenting Surfaces / Peter Kjäll / Salvador Gomez-Carretero
3.2.1.3.Degradable Surfaces for Biomedical Applications / Peter Kjäll / Salvador Gomez-Carretero
3.2.1.4.Controlled Substance Release / Peter Kjäll / Salvador Gomez-Carretero
3.2.2.Prosthetics and Medical Devices / Peter Kjäll / Salvador Gomez-Carretero
3.2.2.1.Organic Bioelectronics as Actuators / Peter Kjäll / Salvador Gomez-Carretero
3.2.2.2.Neuroprosthetics / Peter Kjäll / Salvador Gomez-Carretero
3.3.Organic Electronics in Biomolecular Sensing and Diagnostic Applications / Peter Kjäll / Salvador Gomez-Carretero
3.3.1.Organic Electronics as Biomolecule Sensors: A Technological Overview / Peter Kjäll / Salvador Gomez-Carretero
3.3.2.Small-Molecule and Biological Metabolite Sensing / Peter Kjäll / Salvador Gomez-Carretero
Note continued: 3.3.3.Immunosensors / Peter Kjäll / Salvador Gomez-Carretero
3.3.4.DNA Sensing / Peter Kjäll / Salvador Gomez-Carretero
3.3.5.Medical Diagnosis and the Electronic Nose / Peter Kjäll / Salvador Gomez-Carretero
3.4.Concluding Remarks / Peter Kjäll / Salvador Gomez-Carretero
References / Peter Kjäll / Salvador Gomez-Carretero
4.1.Introduction and Background / Paul Meredith / Albertus B. Mostert / Kristen Tandy
4.2.Physical and Optical Properties of Melanin and the Transport Physics of Disordered Semiconductors / Paul Meredith / Albertus B. Mostert / Kristen Tandy
4.3.The Hydration Dependence of Melanin Conductivity / Paul Meredith / Albertus B. Mostert / Kristen Tandy
4.4.Muon Spin Relaxation Spectroscopy and Electron Paramagnetic Resonance / Paul Meredith / Albertus B. Mostert / Kristen Tandy
4.5.Transport Model for Electrical Conduction and Photoconduction in Melanin / Paul Meredith / Albertus B. Mostert / Kristen Tandy
Note continued: 4.6.Bioelectronics, Hybrid Devices, and Future Perspectives / Paul Meredith / Albertus B. Mostert / Kristen Tandy
References / Paul Meredith / Albertus B. Mostert / Kristen Tandy
5.1.Introduction: The Nature-Inspired / Julia Wünsche / Alessandro Pezzella
5.2.Natural Melanins / Alessandro Pezzella / Julia Wünsche
5.2.1.Overview / Julia Wünsche / Alessandro Pezzella
5.2.2.Distribution and Isolation of Natural Eumelanin / Julia Wünsche / Alessandro Pezzella
5.2.3.Melanogenesis: From Understanding the In Vivo Path to In Vitro Pigment Preparation / Julia Wünsche / Alessandro Pezzella
5.3.Synthetic Melanins / Julia Wünsche / Alessandro Pezzella
5.3.1.Overview / Julia Wünsche / Alessandro Pezzella
5.3.2.Oxidative Polymerization of 5,6-Dihydroxyindole(s) / Julia Wünsche / Alessandro Pezzella
5.4.Chemical-Physical Properties and Structure-Property Correlation / Julia Wünsche / Alessandro Pezzella
Note continued: 5.4.1.Stability against Acids and Bases / Julia Wünsche / Alessandro Pezzella
5.4.2.Molecular Weight / Julia Wünsche / Alessandro Pezzella
5.4.3.Hydration, Aggregation, and Supramolecular Organization / Julia Wünsche / Alessandro Pezzella
5.4.4.Light Absorption and Scattering / Julia Wünsche / Alessandro Pezzella
5.4.5.Metal Chelation / Julia Wünsche / Alessandro Pezzella
5.4.6.Redox State / Julia Wünsche / Alessandro Pezzella
5.4.7.Autoxidation / Julia Wünsche / Alessandro Pezzella
5.4.8.Bleaching / Julia Wünsche / Alessandro Pezzella
5.4.9.NMR Spectroscopy / Julia Wünsche / Alessandro Pezzella
5.4.10.EPR Spectroscopy / Julia Wünsche / Alessandro Pezzella
5.5.Thin Film Fabrication / Julia Wünsche / Alessandro Pezzella
5.6.Melanin Hybrid Materials / Julia Wünsche / Alessandro Pezzella
5.7.Conclusions / Julia Wünsche / Alessandro Pezzella
References / Alessandro Pezzella / Julia Wünsche
Note continued: 6.1. Introduction / Thomas W. Phillips / John C. de Mello
6.1.1. Indium Tin Oxide / Thomas W. Phillips / John C. de Mello
6.1.2. Optoelectronic Characteristics / Thomas W. Phillips / John C. de Mello
6.1.2.1. The Influence of Sheet Resistance / Thomas W. Phillips / John C. de Mello
6.1.2.2. Optical Transparency / Thomas W. Phillips / John C. de Mello
6.1.2.3. Transmittance Versus Sheet Resistance Trade-off Characteristics / Thomas W. Phillips / John C. de Mello
6.1.2.4. Work Function / Thomas W. Phillips / John C. de Mello
6.2. Emergent Electrode Materials / Thomas W. Phillips / John C. de Mello
6.2.1. Graphene / John C. de Mello / Thomas W. Phillips
6.2.1.1. Fabrication / John C. de Mello / Thomas W. Phillips
6.2.1.2. Outlook / John C. de Mello / Thomas W. Phillips
6.2.2. Carbon Nanotubes / John C. de Mello / Thomas W. Phillips
6.2.2.1. Structure / John C. de Mello / Thomas W. Phillips
Note continued: 6.2.2.2.Networks / John C. de Mello / Thomas W. Phillips
6.2.2.3. Film Fabrication / John C. de Mello / Thomas W. Phillips
6.2.2.4. Improving Performance / John C. de Mello / Thomas W. Phillips
6.2.3. Metal Nanowires / John C. de Mello / Thomas W. Phillips
6.2.3.1. Silver Nanowires / John C. de Mello / Thomas W. Phillips
6.2.3.2. Alternative Metal Nanowires / John C. de Mello / Thomas W. Phillips
6.3. Conclusions / John C. de Mello / Thomas W. Phillips
References / John C. de Mello / Thomas W. Phillips
7.1. Polymer Light-Emitting Electrochemical Cells / Janelle Leger / Sam Toshner
7.2. Ionic Carriers / Janelle Leger / Sam Toshner
7.3. Fixed Ionic Carriers / Janelle Leger / Sam Toshner
7.4. Fixed Junction LEC-Based Photovoltaic Devices / Janelle Leger / Sam Toshner
7.5. Conclusions / Janelle Leger / Sam Toshner
References / Janelle Leger / Sam Toshner
8.1. Introduction / Jana Zaumseil
Note continued: 8.2. Working Principle / Jana Zaumseil
8.2.1. Unipolar LEFETs / Jana Zaumseil
8.2.2. Ambipolar LEFETs / Jana Zaumseil
8.3. Recent Trends and Developments / Jana Zaumseil
8.3.1. Heterojunction Light-Emitting FETs / Jana Zaumseil
8.3.2. Single-Crystal Light-Emitting FETs / Jana Zaumseil
8.3.3. Carbon Nanotube Light-Emitting FETs / Jana Zaumseil
8.4. Conclusions / Jana Zaumseil
References / Jana Zaumseil
9.1. Introduction / Fabio Cicoira / Sareh Bayatpour / Jonathan Sayago / Clara Santato
9.2. Electrolyte-Gated Organic Transistors / Jonathan Sayago / Clara Santato / Fabio Cicoira / Sareh Bayatpour
9.3. Electrolytes Employed in Electrolyte-Gated Organic Transistors / Jonathan Sayago / Clara Santato / Fabio Cicoira / Sareh Bayatpour
9.4. Preliminary Results and Challenges in Electrolyte-Gated Organic Light-Emitting Transistors / Jonathan Sayago / Clara Santato / Fabio Cicoira / Sareh Bayatpour
Note continued: 9.5. Relevant Questions and Perspectives in the Field of EG-OLETs / Jonathan Sayago / Clara Santato / Fabio Cicoira / Sareh Bayatpour
References / Jonathan Sayago / Clara Santato / Fabio Cicoira / Sareh Bayatpour
10.1. Introduction / Oksana Ostroverkhova
10.2. Overview of Materials / Oksana Ostroverkhova
10.2.1. Benzothiophene, Anthradithiophene, and Longer Heteroacene Derivatives / Oksana Ostroverkhova
10.2.2. Pentacene and Hexacene Derivatives / Oksana Ostroverkhova
10.2.3. Indenofluorene Derivatives / Oksana Ostroverkhova
10.3. Optical and Photoluminescent Properties of Molecules in Solutions and in Host Matrices / Oksana Ostroverkhova
10.4. Aggregation and Its Effect on Optoelectronic Properties / Oksana Ostroverkhova
10.4.1.J-Versus H-Aggregate Formation / Oksana Ostroverkhova
10.4.2. Example of Aggregation: Disordered H-Aggregates in ADT-TES-F Films / Oksana Ostroverkhova
Note continued: 10.4.2.1. Aggregate Formation: Optical and Photoluminescent Properties / Oksana Ostroverkhova
10.4.2.2. Aggregate Formation: Photoconductive Properties / Oksana Ostroverkhova
10.4.2.3. ADT-TES-F Aggregates: Identification and Properties / Oksana Ostroverkhova
10.4.3. Effects of Molecular Packing on Spectra / Oksana Ostroverkhova
10.4.3.1. Molecular Structure and Solid-State Packing / Oksana Ostroverkhova
10.4.3.2. Film Morphology and Spectra / Oksana Ostroverkhova
10.5.(Photo)Conductive Properties of Pristine Materials / Oksana Ostroverkhova
10.5.1. Ultrafast Photophysics and Charge Transport on Picosecond Timescales / Oksana Ostroverkhova
10.5.2. Charge Transport on Nanosecond and Longer Timescales / Oksana Ostroverkhova
10.5.3. Dark Current and cw Photocurrent / Oksana Ostroverkhova
10.6. Donor-Acceptor Composites / Oksana Ostroverkhova
10.6.1. Donor-Acceptor Interactions: FRET versus Exciplex Formation / Oksana Ostroverkhova
Note continued: 10.6.2. Donor-Acceptor Interactions Depending on the Donor-Acceptor LUMO Energies Offset, Donor and Acceptor Separation, and Film Morphology / Oksana Ostroverkhova
10.6.2.1. Effects on the Photoluminescence / Oksana Ostroverkhova
10.6.2.2. Effects on the Photocurrent / Oksana Ostroverkhova
10.7. Summary and Outlook / Oksana Ostroverkhova
References / Oksana Ostroverkhova
11.1. Introduction / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.2. Device Architectures and Operating Principles / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.2.1. Device Architectures / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.2.1.1. Active Layer / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.2.1.2. Contacts / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
Note continued: 11.2.2. Energetics of Charge Generation in OPV Devices / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.3. Bandgap Engineering: Low-Bandgap Polymers / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.4. Molecular Acceptor Materials for OPV / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.4.1. Morphology / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.4.2. Electron Affinity / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.4.3. Stabilization of Reduced Acceptor / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.4.4.Complementary Light Absorption / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
11.5. Summary / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
References / Andrew Ferguson / Nikos Kopidakis / Dana Olson / Wade Braunecker
Note continued: 12.1. Introduction / Yoshihiro Iwasa / Taishi Takenobu
12.2. Single-Crystal Growth / Yoshihiro Iwasa / Taishi Takenobu
12.3. MISFET / Yoshihiro Iwasa / Taishi Takenobu
12.4. Schottky Diode and MESFET / Yoshihiro Iwasa / Taishi Takenobu
12.5. Ambipolar Transistor / Yoshihiro Iwasa / Taishi Takenobu
12.6. Light-Emitting Ambipolar Transistor / Yoshihiro Iwasa / Taishi Takenobu
12.7. Electric Double-Layer Transistor / Yoshihiro Iwasa / Taishi Takenobu
12.8. Conclusion / Yoshihiro Iwasa / Taishi Takenobu
References / Yoshihiro Iwasa / Taishi Takenobu
13.1. Introduction / Oana D. Jurchescu
13.2.Organic Electronic Devices
Operation Principles / Oana D. Jurchescu
13.3. Materials for Organic Large-Area Electronics / Oana D. Jurchescu
13.4. Manufacturing Processes for Large-Area Electronics / Oana D. Jurchescu
13.4.1.Organic Devices Fabricated by Printing Methods / Oana D. Jurchescu
13.4.1.1. Soft Lithography / Oana D. Jurchescu
Note continued: 13.4.1.2. Inkjet Printing / Oana D. Jurchescu
13.4.2. Spray Deposition for Organic Large-Area Electronics / Oana D. Jurchescu
13.4.2.1. Motivation and Technical Aspects for Spray Deposition / Oana D. Jurchescu
13.4.2.2. Top Electrodes Deposited by Spray Coating / Oana D. Jurchescu
13.4.2.3. Spray-Deposited Organic Thin-Film Transistors / Oana D. Jurchescu
13.4.2.4. Large-Area, Low-Cost Spray-Deposited Organic Solar Cells / Oana D. Jurchescu
13.5. Conclusions / Oana D. Jurchescu
References / Oana D. Jurchescu
14.1. Introduction / Alberto Salleo
14.2. What are Traps in Organic Semiconductors and Where Do They Come From? / Alberto Salleo
14.3. Effect of Traps on Electronic Devices / Alberto Salleo
14.3.1. Transistors / Alberto Salleo
14.3.2. Light-Emitting Diodes / Alberto Salleo
14.3.3. Photovoltaics / Alberto Salleo
14.3.4. Sensors / Alberto Salleo
14.4. Detecting Traps in Organic Semiconductors / Alberto Salleo
Note continued: 14.4.1. Optical Methods / Alberto Salleo
14.4.2. Scanning Probe Methods / Alberto Salleo
14.4.3. Electrical Methods / Alberto Salleo
14.4.4. Use of Electronic Devices / Alberto Salleo
14.5. Experimental Data on Traps in Organic Semiconductors / Alberto Salleo
14.5.1. Traps in Organic Single Crystals / Alberto Salleo
14.5.2. Traps in Polycrystalline Thin Films / Alberto Salleo
14.5.3. Traps in Conjugated Polymer Thin Films / Alberto Salleo
14.6. Conclusions and Outlook / Alberto Salleo
References / Alberto Salleo
15.1. Introduction / Alberto Riminucci / Mirko Prezioso / Patrizio Graziosi
15.2. Magnetoresistive Phenomena in Organic Semiconductors / Alberto Riminucci / Mirko Prezioso / Patrizio Graziosi
15.2.1. Interface Phenomena
The Role of Tunnel Barriers / Alberto Riminucci / Mirko Prezioso / Patrizio Graziosi
15.2.2. Bulk Phenomena and Spin Transport / Alberto Riminucci / Mirko Prezioso / Patrizio Graziosi
Note continued: 15.2.3. Interplay between Conductivity Switching and Spin Transport / Alberto Riminucci / Mirko Prezioso / Patrizio Graziosi
15.3. Applications of Organic Spintronics / Alberto Riminucci / Mirko Prezioso / Patrizio Graziosi
15.3.1. Sensor Applications / Alberto Riminucci / Mirko Prezioso / Patrizio Graziosi
15.3.2. Memristive Phenomena in a Prototypical Spintronic Device / Alberto Riminucci / Mirko Prezioso / Patrizio Graziosi
15.4. Future Developments / Alberto Riminucci / Mirko Prezioso / Patrizio Graziosi
References / Alberto Riminucci / Mirko Prezioso / Patrizio Graziosi
16.1. Introduction / Jong-Ho Choi / Jeong-Do Oh / Hoon-Seok Seo
16.2. Neutral Cluster Beam Deposition Method / Jong-Ho Choi / Hoon-Seok Seo / Jeong-Do Oh
16.3.Organic Thin Films and Organic Field-Effect Transistors / Jeong-Do Oh / Hoon-Seok Seo / Jong-Ho Choi
Note continued: 16.3.1. Morphological and Structural Properties of Organic Thin Films / Jong-Ho Choi / Hoon-Seok Seo / Jeong-Do Oh
16.3.2. Characterization of OFETs / Jeong-Do Oh / Hoon-Seok Seo / Jong-Ho Choi
16.3.3. Transport Phenomena / Jong-Ho Choi / Hoon-Seok Seo / Jeong-Do Oh
16.4.Organic Light-Emitting Field-Effect Transistors / Jeong-Do Oh / Hoon-Seok Seo / Jong-Ho Choi
16.4.1. Characterization of the Component OFETs of Ambipolar OLEFETs / Jong-Ho Choi / Hoon-Seok Seo / Jeong-Do Oh
16.4.2. Electroluminescence and Conduction Mechanism / Jeong-Do Oh / Hoon-Seok Seo / Jong-Ho Choi
16.5.Organic CMOS Inverters / Jong-Ho Choi / Hoon-Seok Seo / Jeong-Do Oh
16.5.1. Characterization of the Component OFETs of Organic CMOS Inverters / Jeong-Do Oh / Hoon-Seok Seo / Jong-Ho Choi
16.5.2. Realization of Air-Stable, Hysteresis-Free Organic CMOS Inverters / Jong-Ho Choi / Hoon-Seok Seo / Jeong-Do Oh
16.6. Summary / Hoon-Seok Seo / Jeong-Do Oh / Jong-Ho Choi