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Terahertz sensing technology. Volume 2, Emerging scientific applications & novel device concepts /

The last research frontier in high frequency electronics lies in the so-called terahertz (or submillimeter wave) regime, between the traditional microwave and the infrared domains. Significant scientific and technical challenges within the terahertz (THz) frequency regime have recently motivated an...

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Detalles Bibliográficos
Clasificación:Libro Electrónico
Otros Autores: Woolard, Dwight L., Loerop, William R., Shur, Michael
Formato: Electrónico eBook
Idioma:Inglés
Publicado: River Edge, N.J. : World Scientific, 2003.
Colección:Selected topics in electronics and systems ; v. 32.
Temas:
Acceso en línea:Texto completo
Tabla de Contenidos:
  • Preface; CONTENTS; THz-Frequency Spectroscopic Sensing of DNA and Related Biological Materials; 1. Introduction; 2. Theory for the Characterization of Bio-Molecules; 3. Experimental Techniques for the Characterization of Bio-Molecules; 4. Comparison of Experimental Results with Theoretical Prediction; 5. Applications: Artificial Neural Network Analysis; 6. Conclusions; References; Spectroscopy with Electronic Terahertz Techniques for Chemical and Biological Sensing; 1. Introduction; 2. Background; 3. Broadband stimulus/response.
  • 4. Reflection and transmission spectroscopy with coherent detection5. Sample preparation; 6. Reflection; 7. Transmission; 8. Reflection from solution proteins; 9. Future directions; 10. Summary; References; Terahertz Applications to Biomolecular Sensing; I. Introduction; II. Background; III. Terahertz Time Domain Spectroscopy of Biomolecular Conformation; IV. Conclusion; References; Characteristics of Nano-Scale Composites at THz and IR Spectral Regions; 1. Introduction; 2. THz spectroscopy; 3. Nano-materials: fabrication and properties; 4. THz spectroscopy of nanocomposites.
  • 5. IR and Raman spectroscopy of nanocomposites6. Conclusion; References; Fundamentals of Terrestrial Millimeter-Wave and THz Remote Sensing; I. Introduction; II. THz Radiation; III. Coupling of THz Sensors to Free Space; IV. THz Receiver Types and Performance Metrics in the Presence of Noise; V. THz Signal and Noise Processing; VI. Radiation-Noise Limits on Sensitivity; VII. Practical Limits on Receiver Sensitivity: Electronic Noise; VIII. Receiver Performance Limitations and Statistics; IX. Overall Performance of Four Types of Passive Sensors; X. Issues and Performance of Active Sensors.
  • XI. Two-Dimensional Imaging and the Quest for Popular ApplicationsReferences; Terahertz Emission using Quantum Dots and Microcavities; 1. Introduction; 2. The Terahertz Emission Regime; 3. QD and Cavities as Terahertz Sources; 4. The Coupled Asymmetric Quantum Dot (CAD) Laser; 5. Quantum Dot Microcavity Terahertz Source; 6. Conclusions; References; Terahertz Transport in Semiconductor Quantum Structures; 1. Introduction; 2. High Frequency Quantum Transport; 3. Photon Assisted Transport; 4. Dynamic Localization and Absolute Negative Conductance; 5. Coherent Miniband Superlattices.
  • 6. Superlattice Devices as a Potential THz Gain Medium7. Conclusions; References; Advanced Theory of Instability in Tunneling Nanostructures; 1. Introduction; 2. Intrinsic Oscillations in Tunneling Structures; 3. Duality Theory in Solid-State THz Generation; 4. A Multi-Band Physics-Based Transport Model for Staggered-Bandgap Tunneling Structures; 5. A Nonequilibrium Green's Function Transport Theory for Multi-band Tunneling Structures; 6. Conclusions; References; Wigner Function Simulations of Quantum Device-Circuit Interactions; 1. Introduction.