Electrical Characterization of Organic Electronic Materials andDevices gives new insights into the electronic properties andmeasurement techniques for low-mobility electronic devices;characterizes the thin-film transistor using its own model; linksthe phenomena seen in different device structures and differentmeasurement techniques; presents clearly both how to performelectrical measurements of organic and low-mobility materials andhow to extract important information from these measurements; andprovides a much-needed theoretical foundation for organicelectronic.
Electrical Characterization of Organic Electronic Materials andDevices gives new insights into the electronic properties andmeasurement techniques for low-mobility electronic devices;characterizes the thin-film transistor using its own model; linksthe phenomena seen in different device structures and differentmeasurement techniques; presents clearly both how to performelectrical measurements of organic and low-mobility materials andhow to extract important information from these measurements; andprovides a much-needed theoretical foundation for organicelectronic.
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Peter Stallinga is a professor at the Universidade do Algarve (Portugal) in the Department of Electronic Engineering and Informatica. He obtained his PhD in Physics at the University of Amsterdam (The Netherlands). From 1994 to 1995, Professor Stallinga was a postdoctoral researcher at the University of California at Berkeley (USA). He then moved to Denmark, where he worked as a postdoctoral researcher at the University of Aarhus. From 1997 to 1999, he was a postdoctoral researcher at the Universidade do Algarve. His main area of scientific research is the physics of electronic materials and other areas of interest include informatics, electronics, and biotechnology. He is an experienced lecturer and parts of the material in this book have been given as lectures at the summer school of a European network on organic electronics (SELOA and MONA-LISA).
Inhaltsangabe
Preface. 1 General concepts. 1.1 Introduction. 1.2 Conduction mechanism. 1.3 Chemistry and the energy diagram. 1.4 Disordered materials and the Meyer-Neldel Rule. 1.5 Devices. 1.6 Optoelectronics/photovoltaics. 2 Two-terminal devices: DC current. 2.1 Conductance. 2.2 DC current of a Schottky barrier. 2.3 DC measurements. 3 Two-terminal devices: Admittance spectroscopy. 3.1 Admittance spectroscopy. 3.2 Geometrical capacitance. 3.3 Equivalent circuits. 3.4 Resistor; SCLC. 3.5 Schottky diodes. 3.6 MIS diodes. 3.7 MIS tunnel diode. 3.8 Noise measurements. 4 Two-terminal devices: Transient techniques. 4.1 Kinetics: Emission and capture of carriers. 4.2 Current transient spectroscopy. 4.3 Thermally stimulated current. 4.4 Capacitance transient spectroscopy. 4.5 Deep-level transient spectroscopy. 4.6 Q-DLTS. 5 Time-of-flight. 5.1 Introduction. 5.2 Drift transient. 5.3 Diffusive transient. 5.4 Violating einstein's relation. 5.5 Multi-trap-and-release. 5.6 Anomalous transients. 5.7 High current (space charge) transients. 5.8 Summary of the ToF technique. 6 Thin-film transistors. 6.1 Field-effect transistors. 6.2 MOS-FET. 6.3 Introducing TFTs. 6.4 Basic model. 6.5 Justification for the two-dimensional approach. 6.6 Ambipolar materials and devices. 6.7 Contact effects and other simple nonidealities. 6.8 Metallic contacts in TFTs. 6.9 Normally-on TFTs. 6.10 Effects of traps. 6.11 Admittance spectroscopy for the determination of the mobility in TFTs. 6.12 Summary of TFT measurements. 6.13 Diffusion transistor. Appendix A A Derivation of Equations (2.21), (2.25), (6.95) and (6.101). Bibliography. Index.
