Encyclopedia of Sensors and Biosensors, Four Volume Set provides unique foundational level information on the rapidly growing sensor community. The book covers innovations in materials, designs, devices and software that find their way into new types of sensors. Sections include over 1000 color images, including representations of sensor design, sensor manufacturing, and assessments of sensor performance. In addition, applications of sensors in healthcare, food safety, environmental engineering and other fields are discussed, making this a truly interdisciplinary work. The book is structured using a logical and thematic approach, with chapters taking a balanced viewpoint, listing both advantages and disadvantages.
Perfect for those learning their trade in both academia and industry, this vital reference work will serve many groups, including chemists, engineers, biological scientists, clinicians, and industrial researchers.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Elsevier - p. iii 6. Editor in Chief - p. iii 7. Section Editors - p. iii 8. Preface - p. iii 9. Volume 1 - p. iii 10. Section 1 - p. iii 11. Physical Sensors - p. iii 12. Physical Sensors: Fluorescence Sensors - p. iii 13. Physical Sensors: Thermal Sensors - p. iii 14. Physical Sensors: Optical Sensors - p. iii 15. Physical Sensors: Plasmonic Sensors - p. iii 16. Physical Sensors: Mechanical Sensors - p. iii 17. Physical Sensors: Acoustic Sensors - p. iii 18. Physical Sensors: Magnetic Sensors - p. iii 19. Physical Sensors: Motion Sensors for Physical Activity Assessment - p. iii 20. Physical Sensors: Holographic Sensors - p. iii 21. Physical Sensors: Radiation Sensors - p. iii 22. Section 2 - p. iii 23. Chemical Sensors - p. iii 24. Chemical Sensors: Voltammetric and Amperometric Electrochemical Sensors - p. iii 25. Chemical Sensors: Impedimetric Electrochemical Sensors - p. iii 26. Chemical Sensors: Conductometric Gas Sensors - p. iii 27. Chemical Sensors: Acoustic Gas Sensors - p. iii 28. Chemical Sensors: Optical Gas Sensors - p. iii 29. Chemical Sensors: Photoelectrochemical Sensors - p. iii 30. Chemical Sensors: Wearable Sensors - p. iii 31. Section 3 - p. iii 32. Biosensors - p. iii 33. Biosensors: Enzyme Sensors - p. iii 34. Biosensors: Immunosensors - p. iii 35. Biosensors: Biosensors Using Engineered Protein - p. iii 36. Biosensors: Hybridization-Based Nucleic Acid Sensors - p. iii 37. Biosensors: Programmable Nucleic Acid-Binding Protein-Based Nucleic Acid Detection and Biosensing - p. iii 38. Biosensors: Aptamer Sensors - p. iii 39. Biosensors: Receptor, Binding Protein, and Peptide Sensors - p. iii 40. Biosensors: Biomimetic Sensors - p. iii 41. Biosensors: Microbial Sensors - p. iii 42. Biosensors: Cell- and Tissue-Containing Biosensors - p. iii 43. Biosensors: Biosensors With Signal Amplification - p. iii 44. Biosensors: Homogeneous Detection - p. iii 45. Biosensors: Gas Sensors - p. iii 46. Combinatorial Sensors: An Integrated Approach to Lifestyle Management and Environmental Surveillance - p. iii 47. Section 4 - p. iii 48. New Sensing Technologies - p. iii 49. New Sensing Technologies: Microtas/NEMS/MEMS - p. iii 50. New Sensing Technologies: Sensors for In Vivo Analysis - p. iii 51. New Sensing Technologies: Atomic Force Microscopy - p. iii 52. New Sensing Technologies: Biosensors Based on Magnetic Nanoparticles and Magnetic Force Microscopy - p. iii 53. New Sensing Technologies: Nanopore Sensing - p. iii 54. Volume 2 - p. iii 55. Section 5 - p. iii 56. Sensing Materials - p. iii 57. Sensing Materials: Ceramics - p. iii 58. Sensing Materials: Glass - p. iii 59. Sensing Materials: Carbon Materials - p. iii 60. Sensing Materials: Diamond-Based Materials - p. iii 61. Sensing Materials: Electrochemical Sensors Enabled by 3D Printing - p. iii 62. Sensing Materials: Self-Healing Hydrogels - p. iii 63. Sensing Materials: Metal Oxides - p. iii 64. Sensing Materials: Liquid Metal-Enabled Flexible Sensors for Biomedical Applications - p. iii 65. Sensing Materials: Organic Polymers - p. iii 66. Sensing Materials: Hydrogels - p. iii 67. Sensing Materials: Electrolyte-Gated Organic Field-Effect Transistors (EGOFETs) - p. iii 68. Sensing Materials: Composites and Hybrid Materials - p. iii 69. Sensing Materials: Self-Sensing Materials - p. iii 70. Sensing Materials: Bimetallics and Metal Mixtures (Core-Shell Microspheres) - p. iii 71. Sensing Materials: Nanomaterials - p. iii 72. Sensing Materials: Electronic Nose and Tongue Materials - p. iii 73. Sensing Materials: Functionalized Advanced Carbon-Based Nanomaterials - p. iii 74. Sensing Materials: Nanostructured Platforms Based on Conducting Polymers for Sensing - p. iii 75. Sensing Materials: Biopolymeric Nanostructures - p. iii 76. Sensing Materials: Nanocomposites - p. iii 77. Surface Plasmon Resonance Platforms for Chemical and Bio-Sensing - p. iii 78. Sensing Materials: Nanostructured Biomaterials - p. iii 79. Sensing Materials: Graphene - p. iii 80. (Bio)Sensing Materials: Quantum Dots - p. iii 81. Sensing Materials: Electropolymerized Molecularly Imprinted Polymers - p. iii 82. Sensing Materials: Enzymes and Aptamers - p. iii 83. Sensing Materials: Bio-inspired Materials - p. iii 84. Sensing Materials: Electrochemical Applications of DNA Sensors and Biosensors - p. iii 85. Sensing Materials: Lanthanide Materials - p. iii 86. Sensing Materials: Novel Electrochemical and Fluorescent Materials - p. iii 87. Sensing Materials: 2D Semiconductors for Biosensing - p. iii 88. Sensing Materials: Nanofibers Produced by Electrospinning and Solution Blow Spinning - p. iii 89. Sensing Materials: Optical Sensing Based on Carbon Quantum Dots - p. iii 90. Sensing Materials: UV/Vis-Based Optical Sensors for Gaseous and Volatile Analytes - p. iii 91. Sensing Materials: Paper Substrates - p. iii 92. Sensing Materials: Flexible Carbon-Based Electrochemical Devices Based on the Three-Dimensional Architecture of Paper - p. iii 93. Section 6 - p. iii 94. Sensing Interfaces - p. iii 95. Sensing Interfaces: Self-Cleaning Materials for Electroanalytical Applications - p. iii 96. Sensing Interfaces: Antifouling Materials for Sensors - p. iii 97. Sensing Interfaces: Materials for Wearable Sensors - p. iii 98. Volume 3 - p. iii 99. Wearable Sensors and Deep Learning for the Management of Acute Pancreatitis in Precision Medicine - p. iii 100. COVID-19 Diagnostic Methods and Detection Techniques - p. iii 101. Fabrication Technologies for Flexible Printed Sensors - p. iii 102. Soft Sensors for Electronic Skin - p. iii 103. Printed Electronics-Enabled Wearable/Portable Physical and Chemical Sensors for Personal Digital Healthcare - p. iii 104. Electronic Textiles (E-Textiles): Fabric Sensors and Material-Integrated Wearable Intelligent Systems - p. iii 105. Electromagnetic Multiphysics Sensing Nondestructive Testing - p. iii 106. Surface Acoustic Wave Sensing - p. iii 107. Fiber Optic Biosensors - p. iii 108. Electrochemical Sensors for New Challenges - p. iii 109. Interfacing Circuits for Capacitive Sensors - p. iii 110. Gas Sensors - p. iii 111. Biosensor Development - p. iii 112. Passive Sensors for Detection of Food Intake - p. iii 113. Triboelectric Sensors for IoT and Wearable Applications - p. iii 114. Soft and Stretchable Electronics Design - p. iii 115. Radar and Non-Contact Sensing - p. iii 116. Resonant Type RF Glucose Biosensors - p. iii 117. Environmental Sensors - p. iii 118. Vibration-Based Energy Harvesting for Sensors - p. iii 119. Aptamers as Versatile Tools for Expanding the Scope of Sensors - p. iii 120. Radio Frequency Identification (RFID) for Sensing - p. iii 121. Microwave Metamaterials for Biomedical Sensing - p. iii 122. Antennas for Sensing Applications - p. iii 123. Sensors for Neonatal Monitoring - p. iii 124. Implantable and Wearable Sensors for Assistive Technologies - p. iii 125. Microfluidic Devices for Biosensing - p. iii 126. Microwave and Terahertz Sensing - p. iii 127. Linear Regression and Artificial Neural Network (ANN)-based Approaches to Predict Air Pollution - p. iii 128. Design, Fabrication, and Characterization of Bio-MEMS - p. iii 129. Sensor Instrumentation for Flow Measurement - p. iii 130. Piezoresistive Nanowire-Based Electromechanical Sensors - p. iii 131. Electrical Impedance-Based Electronic Tongues - p. iii 132. Acoustic Wave Conductometric Sensors - p. iii 133. Active Microcantilevers for Dynamic Mode Atomic Force Microscopy - p. iii 134. Volume 4 - p. iii 135. Section - p. iii 136. Integration, edited by Roozbeh Jafari - p. iii 137. Sensors on the Wrist - p. iii 138. Smart Textiles - p. iii 139. Sensor Technology for Autonomous Vehicles - p. iii 140. Sensors in Hospitals - p. iii 141. Wearable Cyberphysical Systems for Biomedicine - p. iii 142. Bio-Inspired Design of Biosensor Networks - p. iii 143. Electronic Tattoos - p. iii 144. Implantable Sensors - p. iii 145. Measuring Physiological Parameters Under the Skin Using Visible/NIR Light - p. iii 146. Hardware and Algorithmic Approaches to Combat Motion Artifacts in Photoplethysmographic Data - p. iii 147. Sensors as Neural Computing Units - p. iii 148. Computational Aspects in Body Sensor Networks (BSNs): From Operating Systems to Data Fusion - p. iii 149. Transfer Machine Learning Algorithms - p. iii 150. Convolutional Neural Network (CNN) Synthesis for Resource-Constrained Platforms - p. iii 151. Low-Cost Computational Models for Biomedical Sensors - p. iii 152. Noninvasive Multimodal Physiological Sensing Systems - p. iii 153. Sensor Integration for Behavior Monitoring - p. iii 154. Sensor Integration for Gait Analysis - p. iii 155. Section 7 - p. iii 156. Applications, edited by Boris Mizaikoff and Beatriz Fresco Cala - p. iii 157. Surface-Enhanced Raman Scattering Sensing of Food Contaminants - p. iii 158. Optical Sensors in Medical Diagnosis - p. iii 159. Electrochemiluminescence Sensors in Bioanalysis - p. iii 160. Chemiluminescence Sensors in Bioanalysis - p. iii 161. Recent Advances in Plasmonic Biosensors for the Detection of Food Allergens - p. iii 162. Intracellular Biosensing - p. iii 163. Label-Free Plasmonic Biosensors in Clinical Diagnostics - p. iii 164. Plasmonic Biosensors for Medical Applications - p. iii 165. Volatile Organic Compound Exhaled Breath Sensing - p. iii 166. Surface-enhanced Raman scattering (SERS) Sensing of Biomedicine and Biomolecules - p. iii 167. Surface-enhanced Raman scattering (SERS) Sensors for Food Safety - p. iii 168. Plasmonic Biosensors for Food Safety - p. iii 169. Near-Infrared (NIR) Sensors for Environmental Analysis - p. iii 170. Lab on Fiber Technology Towards Advanced and Multifunctional Point-of-Care Platforms for Precision Medicine - p. iii 171. Optical Biosensors for Environmental Analysis - p. iii 172. Flurescence Sensors for the Food Industry - p. iii 173. Molecularly Imprinted Polymer-Based Biomimetic Sensors for Food Analysis - p. iii 174. Luminescence-Based Sensors for Water Quality Analysis - p. iii 175. Why Sensors Need Microfluidics: Real-World Applications - p. iii 176. Miniaturized Electrochemical Biosensors - p. iii 177. Chem/Bio Sensors for Marine Applications - p. iii 178. Detection of Chemical Warfare Agents With Chemical Sensors - p. iii 179. Surface-enhanced Raman spectroscopy (SERS) Sensors for Clinical Analysis - p. iii 180. Biosensors for Precision Agriculture - p. iii 181. Electronic Nose Sensors for Healthcare - p. iii 182. Nanomaterial-Based Fluorescent Biosensors for Monitoring Environmental Pollutants - p. iii 183. Translational Sensor Technology: From the Laboratory to Industry - p. iii 184. Point-of-Care Sensors in Clinical Environments - p. iii 185. Quartz-Enhanced Photoacoustic Sensors for Environmental Monitoring - p. iii 186. Electrochemical Biosensing of Bacteria and Biofilms - p. iii 187. Waveguide-Based Devices for Infrared and Raman Spectroscopy - p. iii 188. Carbonaceous Nanomaterials for Electrochemical Biosensing - p. iii 189. Molecularly Imprinted Polymer Sensors for Environmental Analysis - p. iii 190. Index - p. iii 191. Author Index - p. iii
Encyclopedia of Sensors and Biosensors, Four Volume Set provides unique foundational level information on the rapidly growing sensor community. The book covers innovations in materials, designs, devices and software that find their way into new types of sensors. Sections include over 1000 color images, including representations of sensor design, sensor manufacturing, and assessments of sensor performance. In addition, applications of sensors in healthcare, food safety, environmental engineering and other fields are discussed, making this a truly interdisciplinary work. The book is structured using a logical and thematic approach, with chapters taking a balanced viewpoint, listing both advantages and disadvantages.
Perfect for those learning their trade in both academia and industry, this vital reference work will serve many groups, including chemists, engineers, biological scientists, clinicians, and industrial researchers.
1. Title of Book - p. i 2. Cover image - p. i 3. Title page - p. ii 4. Table of Contents - p. iii 5. Elsevier - p. iii 6. Editor in Chief - p. iii 7. Section Editors - p. iii 8. Preface - p. iii 9. Volume 1 - p. iii 10. Section 1 - p. iii 11. Physical Sensors - p. iii 12. Physical Sensors: Fluorescence Sensors - p. iii 13. Physical Sensors: Thermal Sensors - p. iii 14. Physical Sensors: Optical Sensors - p. iii 15. Physical Sensors: Plasmonic Sensors - p. iii 16. Physical Sensors: Mechanical Sensors - p. iii 17. Physical Sensors: Acoustic Sensors - p. iii 18. Physical Sensors: Magnetic Sensors - p. iii 19. Physical Sensors: Motion Sensors for Physical Activity Assessment - p. iii 20. Physical Sensors: Holographic Sensors - p. iii 21. Physical Sensors: Radiation Sensors - p. iii 22. Section 2 - p. iii 23. Chemical Sensors - p. iii 24. Chemical Sensors: Voltammetric and Amperometric Electrochemical Sensors - p. iii 25. Chemical Sensors: Impedimetric Electrochemical Sensors - p. iii 26. Chemical Sensors: Conductometric Gas Sensors - p. iii 27. Chemical Sensors: Acoustic Gas Sensors - p. iii 28. Chemical Sensors: Optical Gas Sensors - p. iii 29. Chemical Sensors: Photoelectrochemical Sensors - p. iii 30. Chemical Sensors: Wearable Sensors - p. iii 31. Section 3 - p. iii 32. Biosensors - p. iii 33. Biosensors: Enzyme Sensors - p. iii 34. Biosensors: Immunosensors - p. iii 35. Biosensors: Biosensors Using Engineered Protein - p. iii 36. Biosensors: Hybridization-Based Nucleic Acid Sensors - p. iii 37. Biosensors: Programmable Nucleic Acid-Binding Protein-Based Nucleic Acid Detection and Biosensing - p. iii 38. Biosensors: Aptamer Sensors - p. iii 39. Biosensors: Receptor, Binding Protein, and Peptide Sensors - p. iii 40. Biosensors: Biomimetic Sensors - p. iii 41. Biosensors: Microbial Sensors - p. iii 42. Biosensors: Cell- and Tissue-Containing Biosensors - p. iii 43. Biosensors: Biosensors With Signal Amplification - p. iii 44. Biosensors: Homogeneous Detection - p. iii 45. Biosensors: Gas Sensors - p. iii 46. Combinatorial Sensors: An Integrated Approach to Lifestyle Management and Environmental Surveillance - p. iii 47. Section 4 - p. iii 48. New Sensing Technologies - p. iii 49. New Sensing Technologies: Microtas/NEMS/MEMS - p. iii 50. New Sensing Technologies: Sensors for In Vivo Analysis - p. iii 51. New Sensing Technologies: Atomic Force Microscopy - p. iii 52. New Sensing Technologies: Biosensors Based on Magnetic Nanoparticles and Magnetic Force Microscopy - p. iii 53. New Sensing Technologies: Nanopore Sensing - p. iii 54. Volume 2 - p. iii 55. Section 5 - p. iii 56. Sensing Materials - p. iii 57. Sensing Materials: Ceramics - p. iii 58. Sensing Materials: Glass - p. iii 59. Sensing Materials: Carbon Materials - p. iii 60. Sensing Materials: Diamond-Based Materials - p. iii 61. Sensing Materials: Electrochemical Sensors Enabled by 3D Printing - p. iii 62. Sensing Materials: Self-Healing Hydrogels - p. iii 63. Sensing Materials: Metal Oxides - p. iii 64. Sensing Materials: Liquid Metal-Enabled Flexible Sensors for Biomedical Applications - p. iii 65. Sensing Materials: Organic Polymers - p. iii 66. Sensing Materials: Hydrogels - p. iii 67. Sensing Materials: Electrolyte-Gated Organic Field-Effect Transistors (EGOFETs) - p. iii 68. Sensing Materials: Composites and Hybrid Materials - p. iii 69. Sensing Materials: Self-Sensing Materials - p. iii 70. Sensing Materials: Bimetallics and Metal Mixtures (Core-Shell Microspheres) - p. iii 71. Sensing Materials: Nanomaterials - p. iii 72. Sensing Materials: Electronic Nose and Tongue Materials - p. iii 73. Sensing Materials: Functionalized Advanced Carbon-Based Nanomaterials - p. iii 74. Sensing Materials: Nanostructured Platforms Based on Conducting Polymers for Sensing - p. iii 75. Sensing Materials: Biopolymeric Nanostructures - p. iii 76. Sensing Materials: Nanocomposites - p. iii 77. Surface Plasmon Resonance Platforms for Chemical and Bio-Sensing - p. iii 78. Sensing Materials: Nanostructured Biomaterials - p. iii 79. Sensing Materials: Graphene - p. iii 80. (Bio)Sensing Materials: Quantum Dots - p. iii 81. Sensing Materials: Electropolymerized Molecularly Imprinted Polymers - p. iii 82. Sensing Materials: Enzymes and Aptamers - p. iii 83. Sensing Materials: Bio-inspired Materials - p. iii 84. Sensing Materials: Electrochemical Applications of DNA Sensors and Biosensors - p. iii 85. Sensing Materials: Lanthanide Materials - p. iii 86. Sensing Materials: Novel Electrochemical and Fluorescent Materials - p. iii 87. Sensing Materials: 2D Semiconductors for Biosensing - p. iii 88. Sensing Materials: Nanofibers Produced by Electrospinning and Solution Blow Spinning - p. iii 89. Sensing Materials: Optical Sensing Based on Carbon Quantum Dots - p. iii 90. Sensing Materials: UV/Vis-Based Optical Sensors for Gaseous and Volatile Analytes - p. iii 91. Sensing Materials: Paper Substrates - p. iii 92. Sensing Materials: Flexible Carbon-Based Electrochemical Devices Based on the Three-Dimensional Architecture of Paper - p. iii 93. Section 6 - p. iii 94. Sensing Interfaces - p. iii 95. Sensing Interfaces: Self-Cleaning Materials for Electroanalytical Applications - p. iii 96. Sensing Interfaces: Antifouling Materials for Sensors - p. iii 97. Sensing Interfaces: Materials for Wearable Sensors - p. iii 98. Volume 3 - p. iii 99. Wearable Sensors and Deep Learning for the Management of Acute Pancreatitis in Precision Medicine - p. iii 100. COVID-19 Diagnostic Methods and Detection Techniques - p. iii 101. Fabrication Technologies for Flexible Printed Sensors - p. iii 102. Soft Sensors for Electronic Skin - p. iii 103. Printed Electronics-Enabled Wearable/Portable Physical and Chemical Sensors for Personal Digital Healthcare - p. iii 104. Electronic Textiles (E-Textiles): Fabric Sensors and Material-Integrated Wearable Intelligent Systems - p. iii 105. Electromagnetic Multiphysics Sensing Nondestructive Testing - p. iii 106. Surface Acoustic Wave Sensing - p. iii 107. Fiber Optic Biosensors - p. iii 108. Electrochemical Sensors for New Challenges - p. iii 109. Interfacing Circuits for Capacitive Sensors - p. iii 110. Gas Sensors - p. iii 111. Biosensor Development - p. iii 112. Passive Sensors for Detection of Food Intake - p. iii 113. Triboelectric Sensors for IoT and Wearable Applications - p. iii 114. Soft and Stretchable Electronics Design - p. iii 115. Radar and Non-Contact Sensing - p. iii 116. Resonant Type RF Glucose Biosensors - p. iii 117. Environmental Sensors - p. iii 118. Vibration-Based Energy Harvesting for Sensors - p. iii 119. Aptamers as Versatile Tools for Expanding the Scope of Sensors - p. iii 120. Radio Frequency Identification (RFID) for Sensing - p. iii 121. Microwave Metamaterials for Biomedical Sensing - p. iii 122. Antennas for Sensing Applications - p. iii 123. Sensors for Neonatal Monitoring - p. iii 124. Implantable and Wearable Sensors for Assistive Technologies - p. iii 125. Microfluidic Devices for Biosensing - p. iii 126. Microwave and Terahertz Sensing - p. iii 127. Linear Regression and Artificial Neural Network (ANN)-based Approaches to Predict Air Pollution - p. iii 128. Design, Fabrication, and Characterization of Bio-MEMS - p. iii 129. Sensor Instrumentation for Flow Measurement - p. iii 130. Piezoresistive Nanowire-Based Electromechanical Sensors - p. iii 131. Electrical Impedance-Based Electronic Tongues - p. iii 132. Acoustic Wave Conductometric Sensors - p. iii 133. Active Microcantilevers for Dynamic Mode Atomic Force Microscopy - p. iii 134. Volume 4 - p. iii 135. Section - p. iii 136. Integration, edited by Roozbeh Jafari - p. iii 137. Sensors on the Wrist - p. iii 138. Smart Textiles - p. iii 139. Sensor Technology for Autonomous Vehicles - p. iii 140. Sensors in Hospitals - p. iii 141. Wearable Cyberphysical Systems for Biomedicine - p. iii 142. Bio-Inspired Design of Biosensor Networks - p. iii 143. Electronic Tattoos - p. iii 144. Implantable Sensors - p. iii 145. Measuring Physiological Parameters Under the Skin Using Visible/NIR Light - p. iii 146. Hardware and Algorithmic Approaches to Combat Motion Artifacts in Photoplethysmographic Data - p. iii 147. Sensors as Neural Computing Units - p. iii 148. Computational Aspects in Body Sensor Networks (BSNs): From Operating Systems to Data Fusion - p. iii 149. Transfer Machine Learning Algorithms - p. iii 150. Convolutional Neural Network (CNN) Synthesis for Resource-Constrained Platforms - p. iii 151. Low-Cost Computational Models for Biomedical Sensors - p. iii 152. Noninvasive Multimodal Physiological Sensing Systems - p. iii 153. Sensor Integration for Behavior Monitoring - p. iii 154. Sensor Integration for Gait Analysis - p. iii 155. Section 7 - p. iii 156. Applications, edited by Boris Mizaikoff and Beatriz Fresco Cala - p. iii 157. Surface-Enhanced Raman Scattering Sensing of Food Contaminants - p. iii 158. Optical Sensors in Medical Diagnosis - p. iii 159. Electrochemiluminescence Sensors in Bioanalysis - p. iii 160. Chemiluminescence Sensors in Bioanalysis - p. iii 161. Recent Advances in Plasmonic Biosensors for the Detection of Food Allergens - p. iii 162. Intracellular Biosensing - p. iii 163. Label-Free Plasmonic Biosensors in Clinical Diagnostics - p. iii 164. Plasmonic Biosensors for Medical Applications - p. iii 165. Volatile Organic Compound Exhaled Breath Sensing - p. iii 166. Surface-enhanced Raman scattering (SERS) Sensing of Biomedicine and Biomolecules - p. iii 167. Surface-enhanced Raman scattering (SERS) Sensors for Food Safety - p. iii 168. Plasmonic Biosensors for Food Safety - p. iii 169. Near-Infrared (NIR) Sensors for Environmental Analysis - p. iii 170. Lab on Fiber Technology Towards Advanced and Multifunctional Point-of-Care Platforms for Precision Medicine - p. iii 171. Optical Biosensors for Environmental Analysis - p. iii 172. Flurescence Sensors for the Food Industry - p. iii 173. Molecularly Imprinted Polymer-Based Biomimetic Sensors for Food Analysis - p. iii 174. Luminescence-Based Sensors for Water Quality Analysis - p. iii 175. Why Sensors Need Microfluidics: Real-World Applications - p. iii 176. Miniaturized Electrochemical Biosensors - p. iii 177. Chem/Bio Sensors for Marine Applications - p. iii 178. Detection of Chemical Warfare Agents With Chemical Sensors - p. iii 179. Surface-enhanced Raman spectroscopy (SERS) Sensors for Clinical Analysis - p. iii 180. Biosensors for Precision Agriculture - p. iii 181. Electronic Nose Sensors for Healthcare - p. iii 182. Nanomaterial-Based Fluorescent Biosensors for Monitoring Environmental Pollutants - p. iii 183. Translational Sensor Technology: From the Laboratory to Industry - p. iii 184. Point-of-Care Sensors in Clinical Environments - p. iii 185. Quartz-Enhanced Photoacoustic Sensors for Environmental Monitoring - p. iii 186. Electrochemical Biosensing of Bacteria and Biofilms - p. iii 187. Waveguide-Based Devices for Infrared and Raman Spectroscopy - p. iii 188. Carbonaceous Nanomaterials for Electrochemical Biosensing - p. iii 189. Molecularly Imprinted Polymer Sensors for Environmental Analysis - p. iii 190. Index - p. iii 191. Author Index - p. iii
