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LEADER |
00000cam a22000007a 4500 |
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in00000091161 |
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KWAREICT |
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20220221100825.0 |
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161003s2011 flua b 001 0 eng |
020 |
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|a 9781439813874
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035 |
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|a (Kwareict) u29424
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035 |
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|a (KWAREICT)u29424
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040 |
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|c KwareTech
|
082 |
0 |
4 |
|a 681.2 S E D
|2 21
|
245 |
0 |
0 |
|a Semiconductor device-based sensors for gas, chemical, and biomedical applications /
|c edited by Fan Ren & Stephen J. Pearton.
|
260 |
|
|
|a Boca Raton, Fla. :
|b CRC,
|c 2011.
|
300 |
|
|
|a xii, 312 p. :
|b ill. (some col.) ;
|c 27 cm.
|
336 |
|
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|a txt
|b txt
|
504 |
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|a Includes bibliographical references and index.
|
505 |
0 |
0 |
|g Machine generated contents note:
|g 1.1.
|t Introduction /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.2.
|t A1GaN Field-Effect Sensors /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.3.
|t Fabrication and Characterization of A1GaN/GaN Sensors /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.3.1.
|t Growth of the Heterostructure /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.3.2.
|t Sensor Processing /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.3.3.
|t Electrical Characterization of the A1GaN/GaN Heterostructure /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.3.4.
|t Technology Impact on the Surface and Sensor Properties /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.3.5.
|t Biocompatibility of the Sensor /
|r M. Gebinoga /
|r A. Schober /
|r I. Cimalla /
|r V. Lebedev /
|r V. Cimalla /
|r V. Polyakov
|
505 |
0 |
0 |
|g 1.4.
|t Measurement Conditions /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.4.1.
|t Buffer Solutions /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.4.2.
|t Characterization Setup /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.4.3.
|t Noise and Drift /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.4.4.
|t Cell-Based Sensor-CPFET /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.4.5.
|t NG 108-15 Nerve Cell Line /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.4.6.
|t Neurotransmitters-Acetylcholine /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.4.7.
|t Neuroinhibitors /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.4.8.
|t Cell Media /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.5.
|t Cell Coupling to an A1GaN/GaN ISFET /
|r V. Cimalla /
|r I. Cimalla /
|r V. Lebedev /
|r A. Schober /
|r V. Polyakov /
|r M. Gebinoga
|
505 |
0 |
0 |
|g 1.5.1.
|t Sensor Preparation /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.5.2.
|t Sensor Response to pH Changes in Cell Media with/without Cells /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.5.3.
|t Ion Sensitivity of AlGaN/GaN ISFETs /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.5.4.
|t Sensitivity of A1GaN/GaN ISFETs to Inhibitors /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.6.
|t Recording of Extracellular Signal /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.6.1.
|t Response on Single Inhibitors in SCZ Buffer /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.6.2.
|t Response on Single Inhibitors in DMEM /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.6.3.
|t Sensor Response on Different Neurotoxins /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.7.
|t Sensor Signal Simulation /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober
|
505 |
0 |
0 |
|g 1.7.1.
|t Self-Consistent Simulation of the Heterostructure Using a Site-Binding Model /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 1.7.2.
|t Estimation of the Ion Flux in Cleft /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla --
|g 1.8.
|t Summary /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|t Acknowledgments /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|t References /
|r I. Cimalla /
|r M. Gebinoga /
|r V. Cimalla /
|r V. Polyakov /
|r V. Lebedev /
|r A. Schober --
|g 2.1.
|t Introduction /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.2.
|t Gas Sensing /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.2.1.
|t O2 Sensing /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.2.2.
|t CO2 Sensing /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.2.3.
|t CH4 Sensing /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.3.
|t Sensor Functionalization /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.4.
|t pH Measurement /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton
|
505 |
0 |
0 |
|g 2.5.
|t Exhaled Breath Condensate /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.6.
|t Heavy Metal Detection /
|r Jenshan Lin /
|r F. Ren /
|r S.J. Pearton /
|r C.Y. Chang /
|r B.H. Chu --
|g 2.7.
|t Biotoxin Sensors /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.7.1.
|t Botulinum /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.8.
|t Biomedical Applications /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.8.1.
|t pH Sensing in Breath Condensate /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.8.2.
|t Glucose Sensing /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.8.3.
|t Prostate Cancer Detection /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.8.4.
|t Kidney Injury Molecule Detection /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.8.5.
|t Breast Cancer /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.8.6.
|t Lactic Acid /
|r B.H. Chu /
|r C.Y. Chang /
|r S.J. Pearton /
|r Jenshan Lin /
|r F. Ren --
|g 2.8.7.
|t Chloride Ion Detection /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton
|
505 |
0 |
0 |
|g 2.8.7.1.
|t HEMT Functionalized with Ag/AgC1 /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.8.7.2.
|t HEMT Functionalized with InN /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.8.8.
|t Pressure Sensing /
|r S.J. Pearton /
|r Jenshan Lin /
|r C.Y. Chang /
|r B.H. Chu /
|r F. Ren --
|g 2.8.9.
|t Traumatic Brain Injury /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.9.
|t Endocrine Disrupter Exposure Level Measurement /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.10.
|t Wireless Sensors /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 2.11.
|t Summary and Conclusions /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|t Acknowledgments /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|t References /
|r B.H. Chu /
|r C.Y. Chang /
|r F. Ren /
|r Jenshan Lin /
|r S.J. Pearton --
|g 3.1.
|t Introduction /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.2.
|t A1GaN/GaN HEMT Schottky-Diode-Based Hydrogen Sensor /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang
|
505 |
0 |
0 |
|g 3.2.1.
|t Basic Schottky Diode Hydrogen Sensor /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.2.1.1.
|t Device Structure and Fabrication /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.2.1.2.
|t Testing Procedure /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.2.1.3.
|t Experimental Results /
|r Byung Hwan Chu /
|r Yu-Lin Wang /
|r Travis J. Anderson /
|r Jenshan Lin /
|r Fan Ren /
|r Stephen J. Pearton --
|g 3.2.2.
|t TiB2 Ohmic Contacts /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.2.3.
|t Effect of Humidity on Hydrogen Sensors /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.2.4.
|t Differential Sensor /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.3.
|t GaN Schottky Diode Sensor /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.3.1.
|t N-face and Ga-face Comparison /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang
|
505 |
0 |
0 |
|g 3.3.1.1.
|t Device Structure and Fabrication /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.3.1.2.
|t Experimental Results /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.3.2.
|t W/Pt-Contacted GaN Schottky Diodes /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.4.
|t Nanostructured Wide-Bandgap Materials /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.4.1.
|t Hydrogen Sensors Based on ZnO Nanorods /
|r Fan Ren /
|r Travis J. Anderson /
|r Jenshan Lin /
|r Yu-Lin Wang /
|r Stephen J. Pearton /
|r Byung Hwan Chu --
|g 3.4.1.1.
|t Device Structure and Fabrication /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.4.1.2.
|t Experimental Results /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.4.2.
|t GaN Nanowires /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang
|
505 |
0 |
0 |
|g 3.4.3.
|t InN Nanobelts /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.4.4.
|t Single ZnO Nanowire /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang
|
505 |
0 |
0 |
|g Note continued:
|g 3.5.
|t SiC Schottky Diode Hydrogen Sensor /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.6.
|t Wireless Sensor Network Development /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.6.1.
|t Sensor Module /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.6.1.1.
|t Description of Wireless Transceiver /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.6.1.2.
|t Description of Web Server /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.6.2.
|t Field Test /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren --
|g 3.6.2.1.
|t Initial Field Test Results /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang
|
505 |
0 |
0 |
|g 3.6.2.2.
|t Improved Field Test Results /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 3.7.
|t Summary /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|t Acknowledgments /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|t References /
|r Travis J. Anderson /
|r Byung Hwan Chu /
|r Fan Ren /
|r Stephen J. Pearton /
|r Jenshan Lin /
|r Yu-Lin Wang --
|g 4.1.
|t Introduction /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo --
|g 4.2.
|t Surface Properties of InN /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo --
|g 4.2.1.
|t Electronic Properties /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo --
|g 4.2.2.
|t Chemical Sensing Properties /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo
|
505 |
0 |
0 |
|g 4.3.
|t InN-Based Chemical Sensors Development /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo --
|g 4.3.1.
|t Ion-Selective Electrode (ISE) /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo --
|g 4.3.1.1.
|t Device Fabrication /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo --
|g 4.3.1.2.
|t Testing Procedure and Results /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo --
|g 4.3.2.
|t Ion-Sensitive Field-Effect Transistor (ISFET) /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo --
|g 4.3.2.1.
|t Device Fabrication /
|r Hong-Mao Lee /
|r Shangjr Gwo /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong --
|g 4.3.2.2.
|t Testing Procedure and Results /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo --
|g 4.4.
|t Summary /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo
|
505 |
0 |
0 |
|t Acknowledgments /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|r Shangjr Gwo --
|t References /
|r Yuh-Hwa Chang /
|r Yen-Sheng Lu /
|r J. Andrew Yeh /
|r Yu-Liang Hong /
|r Hong-Mao Lee /
|g 5.1.
|t Introduction /
|r Y.W. Heo /
|r S.J. Pearton /
|r D.P. Norton /
|r F. Ren --
|g 5.2.
|t Basic Properties of ZnO /
|r F. Ren /
|r D.P. Norton /
|r Y.W. Heo /
|r S.J. Pearton --
|g 5.3.
|t Dopants in ZnO /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton /
|r Y.W. Heo --
|g 5.4.
|t Ion Implantation /
|r S.J. Pearton /
|r F. Ren /
|r D.P. Norton /
|r Y.W. Heo --
|g 5.5.
|t Etching of ZnO /
|r D.P. Norton /
|r F. Ren /
|r S.J. Pearton /
|r Y.W. Heo --
|g 5.6.
|t Ohmic Contacts /
|r S.J. Pearton /
|r F. Ren /
|r D.P. Norton /
|r Y.W. Heo --
|g 5.7.
|t Schottky Contact /
|r D.P. Norton /
|r F. Ren /
|r S.J. Pearton /
|r Y.W. Heo --
|g 5.8.
|t Properties of Hydrogen in ZnO /
|r S.J. Pearton /
|r F. Ren /
|r D.P. Norton /
|r Y.W. Heo --
|g 5.8.1.
|t Proton Implantation /
|r D.P. Norton /
|r F. Ren /
|r S.J. Pearton /
|r Y.W. Heo --
|g 5.8.2.
|t Hydrogen Plasma Exposure /
|r S.J. Pearton /
|r D.P. Norton /
|r F. Ren /
|r Y.W. Heo --
|g 5.9.
|t Ferromagnetism in ZnO /
|r S.J. Pearton /
|r Y.W. Heo /
|r D.P. Norton /
|r F. Ren
|
505 |
0 |
0 |
|g 5.9.1.
|t Ferromagnetism in Semiconductors /
|r Y.W. Heo /
|r S.J. Pearton /
|r D.P. Norton /
|r F. Ren --
|g 5.9.2.
|t Spin Polarization in ZnO /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.9.3.
|t Nanorods /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.9.4.
|t Properties of Mn- and Co-Implanted Bulk ZnO /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.10.
|t Gas Sensing Using ZnO Thin Film /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.10.1.
|t Ethylene Sensing /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.10.2.
|t CO Sensing /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.11.
|t Transport in ZnO Nanowires /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.12.
|t ZnO Nanowire Schottky Diodes /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.13.
|t ZnO Nanowire MOSFET /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.14.
|t UV Nanowire Photodetectors /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.15.
|t Gas and Chemical Sensing /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.15.1.
|t Hydrogen Sensing with ZnO nanowires /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton
|
505 |
0 |
0 |
|g 5.15.2.
|t Ozone Sensing /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.15.3.
|t pH Response /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.16.
|t Biological Sensing /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.16.1.
|t Surface Modification of ZnO /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.16.2.
|t Using Protein Immobilization for Ultrasensitive Detection of Proteins and Single Viruses /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.16.3.
|t Immobilization of Nucleic Acids on Nanowires for Biosensors for Genes and mRNA /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.16.4.
|t Direct Immobilization of Aptamers for Ultrasensitive Detection of Proteins and Drug Molecules /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.16.5.
|t ZnO Nanowires with Various Doping and Surface Chemistry Terminations /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.16.6.
|t A 3D Self-Consistent Simulator for a Biological Sensor /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|g 5.17.
|t Summary /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|t Acknowledgments /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton --
|t References /
|r Y.W. Heo /
|r F. Ren /
|r D.P. Norton /
|r S.J. Pearton
|
505 |
0 |
0 |
|g 6.1.
|t Introduction /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.
|t Models of BioFET Device Operation /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.1.
|t FET Operation /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.1.1.
|t Charge in a MOSFET /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen --
|g 6.2.1.2.
|t Charge Sheet Models for MOSFETs /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.1.3.
|t Capacitance /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.1.4.
|t Operation of the BioFET /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.1.5.
|t Monitoring the Threshold Voltage /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski
|
505 |
0 |
0 |
|g 6.2.2.
|t The Oxide Surface and the Electrolyte /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.2.1.
|t The Electrolyte and Double Layer /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.2.2.
|t The Oxide Surface in an Electrolyte /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.2.3.
|t Other Insulators /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen --
|g 6.2.3.
|t Molecules on the Oxide Surface /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.3.1.
|t Linker Layer /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r G. Lopinski /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r M.J. Deen --
|g 6.2.3.2.
|t Charged Membrane-Especially Oligonucleotides /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski
|
505 |
0 |
0 |
|g 6.2.3.3.
|t Electrostatics of Brushes and the Donnan Potential /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.4.
|t Membrane Model and Poisson-Boltzmann Analysis /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.4.1.
|t Donnan Potential /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.4.2.
|t Change with Hybridization /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.5.
|t Small-Signal Analysis and Sensitivities /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen
|
505 |
0 |
0 |
|g Note continued:
|g 6.2.5.1.
|t Effects of pH and Hydroxyl Density /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.5.2.
|t Ion Sensitivity versus Charge Sensitivity /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.5.3.
|t Complexation /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.5.4.
|t Impermeable Linking Layer /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.5.5.
|t Permeable Linking Layer /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.5.6.
|t Transient Effects due to Mixing /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski
|
505 |
0 |
0 |
|g 6.2.5.7.
|t Size of the Signal /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.6.
|t Large-Signal Models of the BioFET /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen --
|g 6.2.7.
|t Limitations of the 1-D Model /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.7.1.
|t Manning Condensation /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.7.2.
|t Other Mechanisms for the Signal in a BioFET /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.7.3.
|t The Mystery of High Signals /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.2.8.
|t Comparison with Measurements /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski
|
505 |
0 |
0 |
|g 6.2.9.
|t BioFET Simulations in 3-D /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.
|t Impedance Measurements on BioFETs /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.1.
|t Impedance of ISFETs, REFETs, and the First Biomembranes /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen --
|g 6.3.1.1.
|t ISFETs /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.1.2.
|t REFETs /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.1.3.
|t Measurement of Differential Output with ISFFET/REFET Pairs /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.1.4.
|t First Impedance Studies of Protein Membranes /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski
|
505 |
0 |
0 |
|g 6.3.1.5.
|t Series Resistance of the Electrolyte /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.2.
|t Membrane Sensors /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.2.1.
|t Ion-Selective Surfaces /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.2.2.
|t Antigen[-]Antibody Conjugation /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen --
|g 6.3.2.3.
|t Electrochemical (Faradaic) Impedance Spectroscopy /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.2.4.
|t EnFETs /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.3.
|t Detection of DNA Hybridization /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski
|
505 |
0 |
0 |
|g 6.3.3.1.
|t SNP Detection in Prehybridized DNA /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.3.3.2.
|t SNP Detection for In Situ Hybridization /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r G. Lopinski /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r M.J. Deen --
|g 6.4.
|t MOS Nanowire BioFETs /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.1.
|t Bioaffinity Sensing with SiNWs /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.1.1.
|t Probe Target Binding and the Langmuir Model /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.1.2.
|t History /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.2.
|t SiNWs Grown by the VLS Method /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski
|
505 |
0 |
0 |
|g 6.4.3.
|t Planar MOS Nanowires-No Gating /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.4.
|t Back-Gated Planar Sensors /
|r M.W. Shinwari /
|r M.J. Deen /
|r D. Landheer /
|r N.G. Tarr /
|r W.H. Jiang /
|r G. Lopinski /
|r G. Dubey /
|r W.R. McKinnon --
|g 6.4.4.1.
|t Attomolar Detection of Proteins /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.4.2.
|t Demonstrations of Back-Gated SiNW Bioaffinity Sensor Performance /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.4.3.
|t Nanoribbons /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.5.
|t Eliminating the Oxide Layer /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.6.
|t Alternate Nanowire Fabrication Methods /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski
|
505 |
0 |
0 |
|g 6.4.7.
|t Nanowire Electrical Models /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.7.1.
|t Cylindrical Membranes /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.7.2.
|t Determination of Nanowire Capacitance and Surface Potential /
|r M.W. Shinwari /
|r M.J. Deen /
|r D. Landheer /
|r N.G. Tarr /
|r W.H. Jiang /
|r G. Lopinski /
|r G. Dubey /
|r W.R. McKinnon --
|g 6.4.7.3.
|t 3-D Models /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.8.
|t Slow Response due to Diffusion /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|g 6.4.9.
|t Conclusions /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r M.J. Deen /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r G. Lopinski --
|t References /
|r D. Landheer /
|r W.R. McKinnon /
|r W.H. Jiang /
|r G. Lopinski /
|r G. Dubey /
|r N.G. Tarr /
|r M.W. Shinwari /
|r M.J. Deen --
|g 7.1.
|t MEMS Introduction /
|r Z.M. Qi /
|r H. Xie --
|g 7.1.1.
|t MEMS Overview /
|r Z.M. Qi /
|r H. Xie
|
505 |
0 |
0 |
|g 7.1.2.
|t MEMS Fabrication /
|r Z.M. Qi /
|r H. Xie --
|g 7.1.3.
|t Chapter Outline /
|r Z.M. Qi /
|r H. Xie --
|g 7.2.
|t Optical Sensing Principles /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.
|t MEMS-Based Fourier Transform Spectroscopy for Chemical Sensing /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.1.
|t Quantized States in Molecules /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.2.
|t Optical Spectroscopy /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.3.
|t Fourier Transform Spectroscopy /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.4.
|t Fourier Transform Infrared Spectroscopy /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.5.
|t MEMS FTIR /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.5.1.
|t MEMS Actuators /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.5.2.
|t Miniature FTIR Based on Electrostatic Micromirrors /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.5.3.
|t Miniature FTIR Based on Electromagnetic Micromirrors /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.5.4.
|t Miniature FTIR Based on Electrothermal Micromirrors /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.5.5.
|t A Mirror-Tilt-Insensitive (MTI) Fourier Transform Spectrometer /
|r Z.M. Qi /
|r H. Xie --
|g 7.3.6.
|t Summary /
|r Z.M. Qi /
|r H. Xie --
|g 7.4.
|t Interferometric MEMS Chemical and Biochemical Sensors /
|r Z.M. Qi /
|r H. Xie --
|g 7.4.1.
|t Introduction /
|r Z.M. Qi /
|r H. Xie
|
505 |
0 |
0 |
|g 7.4.2.
|t Integrated Optical Mach-Zehnder Interferometer (MZI) Sensors /
|r Z.M. Qi /
|r H. Xie --
|g 7.4.3.
|t Composite Waveguide-Based Polarimetric Interferometer (PI) Sensors /
|r Z.M. Qi /
|r H. Xie --
|g 7.4.4.
|t Integrated Optical Young Interferometer (YI) Sensors /
|r Z.M. Qi /
|r H. Xie --
|g 7.4.4.1.
|t Sensing Principle of Integrated Optical YI /
|r Z.M. Qi /
|r H. Xie --
|g 7.4.4.2.
|t Slab-Type YI Sensors /
|r Z.M. Qi /
|r H. Xie --
|g 7.4.4.3.
|t Stripe-Type YI Sensors /
|r Z.M. Qi /
|r H. Xie --
|g 7.4.5.
|t Integrated Optical Fabry-Perot Interferometer (FPI) Sensor /
|r Z.M. Qi /
|r H. Xie --
|g 7.4.6.
|t Conclusion /
|r Z.M. Qi /
|r H. Xie --
|t References /
|r Z.M. Qi /
|r H. Xie.
|
650 |
0 |
4 |
|a Chemical detectors.
|
650 |
0 |
4 |
|a Biosensors.
|
700 |
1 |
|
|a Ren, F.
|
700 |
1 |
|
|a Pearton, S. J.
|
942 |
|
|
|2 ddc
|c BOOK
|
999 |
|
|
|c 14439
|d 14439
|
999 |
f |
f |
|i 479fd6c7-d6de-5024-bd2e-984a168d1a84
|s d59a9ae3-9b82-556d-aba5-36dd7f7b3b24
|