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Smart Biosensor Technology [Kõva köide]

Edited by (The University of Western Ontario, London, Canada), Edited by (The University of Western Ontario, London, Canada), Edited by (The University of Western Ontario, London, Canada), Edited by (University of Western Ontario, Canada)
  • Formaat: Hardback, 664 pages, kõrgus x laius: 254x178 mm, kaal: 1429 g, 58 equations; 61 Halftones, black and white; 12 Tables, black and white; 21 Illustrations, color; 300 Illustrations, black and white, Contains 118 hardbacks
  • Ilmumisaeg: 26-Dec-2006
  • Kirjastus: CRC Press Inc
  • ISBN-10: 0849337593
  • ISBN-13: 9780849337598
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  • Formaat: Hardback, 664 pages, kõrgus x laius: 254x178 mm, kaal: 1429 g, 58 equations; 61 Halftones, black and white; 12 Tables, black and white; 21 Illustrations, color; 300 Illustrations, black and white, Contains 118 hardbacks
  • Ilmumisaeg: 26-Dec-2006
  • Kirjastus: CRC Press Inc
  • ISBN-10: 0849337593
  • ISBN-13: 9780849337598
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A smart biosensor, as Knopf (mechanical and materials engineering, U. of Ontario, Canada) and Bassi (chemical and biochemical engineering, U. of Ontario) define it, is "a compact analytical device that combines a biological, or biologically derived, sensing element with an electrical, optical, or chemical transducer." Stressing that it is the synergistic functional integration of component parts that makes a biosensor "smart," they present 23 chapters that together provide a multidisciplinary perspective on the field. Opening chapters discuss the intelligent properties of biological macromolecules, optical methods of single molecule detection, nanoscale optical biosensors and biochips for cellular diagnostics, conducting polymer nanowire-based biomolecular field-effect transistor, machine learning and smart biosensor functions, and neuronal network biosensors. Seven chapters then address issues of material design and selection, followed by a section on bioelectronics. The volume concludes with six chapters on applications in detection and monitoring, including optical biosensors in foodborne pathogen detection, multiarray biosensors for toxicity monitoring and bacterial pathogens, approaches to allergy detection using aptasensors, biosensors for virus detection, and detection of influenza. Annotation ©2007 Book News, Inc., Portland, OR (booknews.com)

Synergy is the key to creating more intelligent biosensors. Engineers develop smaller, more integrated technologies; biologists and chemists develop increasingly selective and sensitive sensor elements; material scientists develop ways to bring it all together. However, most books focus only on the chemistry aspects of biosensor technologies. With a multidisciplinary perspective, Smart Biosensor Technology examines the design, applications, and future directions of this rapidly evolving field.

This book collects contributions from leading specialists in a variety of scientific and engineering disciplines involved in different aspects of biosensor design and technology. Five broad sections provide a systematic structure that builds progressively from key concepts to emerging technologies and future directions. Following an introduction to the fundamental characteristics and functions of the underlying technologies, two sections explore the role materials play in developing smart biosensors. Next, the editors devote an entire section to bioelectronics with a focus on a biophotonic material called bacteriorhodopsin and its application to photoelectric biosensing, chemical sensing, and color imaging. They also present design and fabrication of new bioelectronic sensing arrays on flexible substrates. The final section explores a variety of smart biosensor applications in detecting food pathogens, monitoring toxicity, and detecting allergens and viruses.

Building a solid background in the underlying technologies and demonstrating how to apply this knowledge to solve real problems, Smart Biosensor Technology is a comprehensive, interdisciplinary guide to extending the capabilities of biosensors for a broad range of fields.
Part I Overview and Fundamentals
Toward Understanding the Intelligent Properties of Biological Macromolecules---Implications for Their Design into Biosensors
3(80)
Kenneth A. Marx
Introduction to Smart Biosensors
4(4)
Components of Biosensors
5(1)
Biological Elements
5(1)
Immobilization Methods
5(2)
Signal Transduction Mechanisms and Biosensor Output
7(1)
Intelligent Properties of Biological Macromolecules and Systems
7(1)
Creating Biosensors That Detect Small and Large Molecules Using Different Signal Transduction Mechanisms
8(36)
Optical-Based Biosensors
8(1)
Chromophore-Containing Proteins in Biosensor Applications
8(1)
The Phycobiliproteins
8(7)
Bacteriorhodopsin
15(3)
Chemiluminescent Probe-Based Enzyme Biosensors
18(1)
Organophosphorus Pesticide Detection
19(2)
Detecting Zn2+, Be2+, and Bi3+ Ions Competitively
21(1)
Electrochemical-Based Biosensors
21(2)
DNA Interaction With Electropolymerized Conducting Polymers---Immobilization by Electrostatic Interactions
23(2)
Enzyme Electrode Biosensor---Enzyme Entrapment During Electropolymerization of Thin Phenolic Films for Hydrogen Peroxide Biosensing
25(4)
Electropolymerization of Comonomer Mixtures of Biomimetic Tyrosine and Tyrosine-Containing Peptides Forms Thin Films Possessing Specific Cell Attachment/Localization Properties
29(1)
Piezoelectric-Based Biosensors
29(2)
Quartz Crystal Microbalance Biosensor Detects Enzymatic Polymerization
31(3)
Quartz Crystal Microbalance Cell Biosensor for Cell Characterization and Drug Discovery Applications
34(1)
Measuring the Fundamental Process of Cell Attachment During Biosensor Formation
34(4)
Cell Quartz Crystal Microbalance Biosensor Detection of Cytoskeleton Binding Drugs
38(4)
Cell Quartz Crystal Microbalance Biosensor---Removing Cells Yields Intact Extracellular Matrix: A Natural Intelligent Biomaterial With Potential for Creating a Smart Bandage
42(1)
Isolating and Studying the Extracellular Matrix---A Natural Intelligent Biomaterial
42(1)
Releasing Wound-Healing Factors by Potential Stimulation of the Acellular Extracellular Matrix---The Smart Bandage Concept
43(1)
Simulating the Properties of DNA---Potential for Predicting Intelligent Properties and Evaluating Their Role in Biosensors
44(17)
Intelligent Properties of DNA
44(4)
Redundancy of Single Base Repeating Tracts---The Simplest Repeating Sequences
48(2)
DNA Tertiary Structure Self-Assembly---Counterion Condensation Drives Intramolecular DNA Collapse and Helps Determine Electrophoretic Mobilities
50(3)
Computational Simulation of DNA Melting---Reversing the Self-Assembly Process of the Double Helix
53(4)
Proteins Interacting With DNA act as Switches of DNA Effector or Actuator Function---Understanding Stability and Functional Outcomes of the Complexes by Examining the DNA Sequence Physical Properties
57(4)
The Importance of Informatics and Data Mining Approaches in Understanding Biological Macromolecules and in Biosensor Design and Operation
61(5)
Machine Learning Approaches
61(1)
Application of Machine Learning to the Analysis of High-Dimensionality Data From Microarray Biosensors
62(3)
Applying Supervised Machine Learning to the NCI Compounds' Effects on Cancer Cells
65(1)
Future Prospects for Biosensors
66(17)
Acknowledgments
71(1)
References
72(11)
Optical Methods of Single Molecule Detection and Applications in Biosensors
83(26)
Xiaomeng Wang
Melissa Massey
Paul A.E. Piunno
Ulrich J. Krull
Introduction
84(1)
The Principle of Single Molecule Detection Using Optical Methods
85(9)
Origins of Fluorescence
85(1)
Measurement of Fluorescence
86(1)
Parameters Affecting Fluorescence
86(1)
Molecular Structure: (Example---Degree of Conjugation)
86(1)
Substituent Effects: (Example---Electron-Donating and Electron-Withdrawing Groups)
87(1)
Heterocyclic Compounds
87(1)
Temperature
87(1)
Charge Transfer and Internal Rotation
87(1)
Solvent Viscosity/Twist Angle: (Example---the Cyanine Dyes)
88(1)
Quenching
88(1)
Dynamic Quenching: (Example---Stern--Volmer Relation)
88(1)
Static Quenching
89(1)
Perrin/Sphere of Effective Quenching
89(1)
Formation of a Ground-State Nonfluorescent Complex (Preassociation)
90(1)
Fluorescence Resonance Energy Transfer
91(2)
Signal-to-Noise and the Practical Issues of Single Molecule Detection
93(1)
Methods of Detection
94(5)
Fluorescence Correlation Spectroscopy
94(2)
Near-Field Scanning Optical Microscopy
96(1)
Far-Field Confocal Microscopy
97(1)
Wide-Field Epi-Illumination Microscopy
98(1)
Total internal Reflection Microscopy
99(1)
Applications of Single Molecule Detection
99(5)
DNA Sequencing and DNA Fragment Sizing
100(1)
Single-Pair Fluorescence Responance Energy Transfer
100(2)
Single-Molecule Electrophoresis
102(1)
Single Molecule Detection in the Study of Dynamics
102(1)
Single Molecule Detection in Biomolecular Dynamics
103(1)
Conclusions
104(5)
References
104(5)
Nanoscale Optical Biosensors and Biochips for Cellular Diagnostics
109(24)
Brian M. Cullum
Introduction to Nanosensors and Biochips
109(5)
Beginnings of Optical Nanosensor
111(1)
Fiber-Optic Tapering
112(2)
Submicron and Nanoscale Sensors and Biosensors
114(9)
Fiber-Optic Nanosensors
114(1)
Fiber-Optic Chemical Nanosensors
114(1)
Fiber-Optic Nano-Biosensors
115(1)
Antibody-Based Fiber-Optic Nano-Biosensors
115(1)
Protein-Based Fiber-Optic Nano-Biosensors
116(1)
Molecular Beacon-Based Fiber-Optic Nano-Biosensors
117(1)
Fiber-Optic Nano-Imaging Probes
118(1)
Implantable Nanosensors
119(1)
Quantum-Dot-Based Nano-Biosensors
120(1)
Polymer-Encapsulated Nanosensors
120(1)
Phospholipid-Based Nanosensors
121(1)
SERS-Based Nanosensors
122(1)
Biochip and Chip-Based Biosensor Arrays
123(3)
Oligonucleotide-Based Biochips
124(1)
Antibody-Based Biochips
124(1)
Aptamer-Based Biochips
125(1)
Integrated Multifunctional-Based Biochips
125(1)
Conclusions
126(7)
References
127(6)
Conducting Polymer Nanowire-Based BioFET for Label-Free Detection
133(18)
Adam K. Wanekaya
Wilfred Chen
Nosang V. Myung
Ashok Mulchandani
Introduction
133(2)
Scope and Overview of the
Chapter
134(1)
Fabrication of One-Dimensional Conducting Polymer Nanostructures
135(5)
Dip-Pen Nanolithography
135(1)
Mechanical Stretching
136(1)
Electrospinning
136(1)
Template-Directed Methods
136(1)
Individually Addressable Single Nanowires
137(3)
Functionalization of Conducting Polymers
140(4)
Functionalization of Conducting Polymer Nanowires
142(2)
Assembly/Fabrication of Nanowire-Based Field Effect Transistor Sensor Device
144(1)
Label-Free Sensing using Nanowire-Based Field Effect Transistor
145(1)
Conclusions and Future Perspectives
145(6)
Acknowledgments
146(1)
References
146(5)
Smart Biosensor Functions---A Machine Learning Perspective
151(26)
George K. Knopf
Introduction
151(3)
The Role of Machine Learning in Developing Smart Biosensor Functions
154(4)
Pattern Recognition
154(1)
Artificial Intelligence and Neural Networks
155(3)
Biosensor Data Analysis Using Artificial Neural Networks
158(14)
Sensor Calibration by Functional Approximation
158(1)
Radial Basis Function Network
159(2)
Multivariate Calibration Surface for a bR Photocell
161(2)
Pattern Analysis
163(2)
Self-Organizing Feature Map
165(2)
Pattern Classification
167(1)
Pattern Association
168(2)
Scientific Data Visualization
170(2)
Conclusions
172(5)
References
174(3)
Neuronal Network Biosensors
177(28)
Guenter W. Gross
Joseph J. Pancrazio
Introduction
177(3)
Methods
180(4)
Cell Culture
180(1)
Multichannel Recording
181(3)
Network Response Profiles
184(8)
Pharmacological Dose Responses
184(4)
Responses to Toxins
188(1)
Life Support Stability and Medium Biochemistry
189(3)
The NNBS as a Broadband Water Toxicity Sensor
192(6)
Detection, Classification, and Identification
192(2)
Sample Introduction and Resistance to Chlorine
194(1)
Portable Sensor Units
195(3)
Development of Multinetwork Platforms for High Throughput
198(1)
Summary
198(7)
Acknowledgments
199(1)
References
199(6)
Part II Material Design and Selection I
Material Design and Selection for Smart Biosensors
205(18)
Amarjeet S. Bassi
Introduction
205(10)
Cantilever Arrays
207(2)
Nanotubes
209(1)
Ferromagnetic Particles
210(1)
Smart Polymer Composites, Fabrics, and Textiles
211(1)
Conducting Films and Gels
211(1)
Dendrimers
212(2)
Nanoparticles and Microspheres
214(1)
Stimuli-Responsive Materials
215(3)
pH-Sensitive Materials
215(2)
Thermosensitive Materials
217(1)
Photo-Responsive Materials
218(1)
Conclusions and Future Prospects
218(5)
References
219(4)
Molecular Film Assembled Detection System for Biosensors by Layer-by-Layer Adsorption
223(8)
Shin-ichiro Suye
Haitao Zheng
Introduction
223(1)
Preparation of Layer-by-Layer Film on a Solid-State Device
224(1)
Properties of Layer-by-Layer Film
225(2)
Characterization of Multicomponent Films by Quartz Crystal Microbalance
225(2)
Atomic Force Microscopy
227(1)
Application of Layer-by-Layer Adsorption for Biosensors
227(1)
Conclusions
228(3)
References
229(2)
Nanostructured Organic Matrices and Intelligent Sensors
231(18)
Claudio Nicolini
Manuela Adami
Cristina Paternolli
Introduction
231(1)
Intelligent Metal Sensing: The Psa Analyzer
232(3)
Liquid Sensing Using Polymer and Nanocomposite Matrices
235(2)
Nanostructured Cytochrome Matrices for Liquid Sensing
237(3)
Nanostructured Bacteriorodhopsin Matrices for Liquid Sensing
240(1)
Organic Nanostructured Matrices for Gas Sensing
241(3)
Conclusions
244(5)
Acknowledgments
244(1)
References
244(5)
The Challenge of Human Skin---Engineering the Biotic/Abiotic Interface
249(22)
Puneet Khanna
Steven Hoath
Rod Smallwood
Shekhar Bhansali
Introduction
250(1)
Skin-Interface Systems: Concept
251(1)
Anatomy of Skin
252(2)
General Structure
252(1)
Stratum Corneum
253(1)
System Architecture
254(2)
Design of the System
256(1)
Significance of Skin-Interface Systems
256(2)
Bioimpedance and Bioelectricity Measurement
257(1)
Electrochemical Sensing
257(1)
Programmed Drug Delivery
257(1)
Automated Feedback-Controlled Therapy
258(1)
Electrotherapeutic Pain Relief
258(1)
Iontophoresis
258(1)
Technological Merit of Skin-Interface Systems
258(4)
Benefits from Microelectrodes
259(1)
Benefits from Microneedles
260(2)
Designing the Interface Microtools
262(3)
Functional Requirements or Constraints
262(1)
Electrical Parameters
262(1)
Mechanical Parameters
263(1)
Other Parameters
263(1)
Design Variables
263(1)
Material Selection
263(1)
Geometrical Considerations
264(1)
Array Layout
264(1)
Evaluation of Microstructure Interaction with Skin
265(1)
Microneedle Testing
265(1)
Microelectrode Testing
266(1)
Conclusion
266(5)
References
267(4)
Part III Material Design and Selection II
Porous Silicon in Biosensing Applications
271(20)
Benjamin L. Miller
Introduction
271(1)
Origins and Definitions
272(2)
PSi Biosensors: Early Work at Rochester
274(2)
From Empirical Observations to Predictable Behavior: Understanding the Properties of Mesoporous Silicon Biosensors in Greater Detail
276(2)
Using Enzyme Assays as a Secondary Monitor of Sensor Performance
278(5)
Studying the Longevity of PSi under Environmentally and Physiologically Relevant Conditions
283(1)
PSi Biosensors in Hydrogels: Toward the ``Smart Bandage''
283(1)
Beyond Mesoporous Silicon: Larger-Volume Structures
284(1)
Alternative Sensing Modes and Device Structures
285(2)
``Smart Dust''
285(1)
Electrical Sensors as an Alternative Biosensing Mechanism
286(1)
Conclusions and Prospective
287(4)
References
288(3)
Fundamental Aspects and Applications of Nanotubes and Nanowires for Biosensors
291(44)
Xueliang Sun
Chen-zhong Li
Introduction
292(1)
Carbon Nanotubes
293(8)
Introduction
293(1)
Synthesis of Carbon Nanotubes
294(2)
Growth Mechanisms and Structure Control
296(1)
Single-Walled Carbon Nanotubes
297(2)
Multi-Walled Carbon Nanotubes
299(2)
Nanowires
301(4)
Introduction
301(1)
Synthesis of Nanowires
302(1)
Vapor Phase Growth of Nanowires
302(1)
Vapor--Liquid--Solid Growth
302(1)
Vapor--Solid Growth
303(1)
Solution-Based Growth of Nanowires
304(1)
Template-Based Synthesis
304(1)
Properties of Nanowires
305(1)
Functionalization of Carbon Nanotubes and Nanowires for Biosensor Development
305(5)
Solubilization and Functionalization of Carbon Nanotubes
305(1)
Solubilization of Carbon Nanotubes
306(1)
Functionalization of Carbon Nanotubes With Biomaterials
307(1)
Noncovalent Modification
307(1)
Covalent Binding
307(1)
Biofunctionalization of Nanowires
308(2)
Design and Construction of Carbon Nanotube and Nanowire-Based Biosensors
310(12)
Approaches to Design and Assemble Biosensors Based on Carbon Nanotubes
310(1)
Carbon Nanotubes-Based Electrochemical Biosensing Platforms
310(1)
Directly Use Carbon Nanotubes as Electrodes
310(1)
Carbon Nanotubes Used as Catalytic Mediators
311(1)
The Enhanced Catalytic Performance of Nanoparticles and Carbon Nanotube Complexes
311(2)
Carbon Nanotube-Based Nanoelectrode Arrays
313(2)
Carbon Nanotubes as Field-Effect Transistors in Nanosensor Construction
315(2)
Carbon Nanotube-Based Scanning Probe Microscopy Probe Tips for Imaging Biological Compounds and Biological Sensitive Measurements
317(3)
The Use of Nanowires in Biological Detection
320(2)
Conclusion and Future Perspective
322(13)
References
324(11)
Electrochemical Biosensors Based on Carbon Nanotubes
335(20)
Won-Yong Lee
Introduction
335(2)
Electrochemical Behavior of CNT-Modified Electrodes
337(1)
Enzymatic Biosensors Based on CNTs
338(7)
Biosensors Based on the Enhanced Electrocatalytic Activity of CNT
338(1)
Fabrication of CNT-Based Enzymatic Biosensors
338(2)
Oxidase-Based Biosensors
340(2)
Dehydrogenase-Based Biosensors
342(1)
Other Enzyme-Based Biosensors
342(1)
Direct Electrochemistry of Redox Proteins and Enzymes
343(2)
DNA Hybridization Biosensors Based on CNTs
345(2)
DNA Hybridization Detection Based on Electroactive Label
345(1)
DNA Hybridization Detection Based on Guanine Oxidation
346(1)
DNA Hybridization Detection Based on Enzyme Label
346(1)
DNA Hybridization Sensor Based on Impedance Measurement
347(1)
Field-Effect Transistors Based on Biomolecule-Functionalized CNTs
347(1)
Glucose Detection
347(1)
Assay of Protein Bindings
347(1)
Conclusions and Future Perspectives
348(7)
Acknowledgment
349(1)
References
349(6)
Part IV Bioelectronics
Bacteriorhodopsin: From Biophotonic Material to Chemical Sensor
355(30)
Jeffrey A. Stuart
Robert R. Birge
Pallab Bhattacharia
Brian J. Yordy
Jeffrey Girard
William Tetley
Duane L. Marcy
Jeremy F. Koscielecki
Jason R. Hillebrecht
Introduction
355(3)
Bacteriorhodopsin as a Biophotonic Material
358(8)
Basic Properties
358(1)
The Bacteriorhodopsin Photocycle
358(2)
Bacteriorhodopsin Photochromism
360(1)
The Bacteriorhodopsin Photoelectric Effect
361(1)
Bacteriorhodopsin Modification Through Genetic Engineering
362(4)
Bacteriorhodopsin as a Sensor Element
366(12)
Bacteriorhodopsin as an Integrated Element in Microelectronics
366(2)
Microelectronic Devices Employing Bacteriorhodopsin for Enhanced Function
368(2)
Bacteriorhodopsin as a Sensor of its Chemical Environment
370(1)
Bacteriorhodopsin and Chemical Sensitivity
371(1)
Bacteriorhodopsin-Based Chemical Sensor Architecture
372(2)
Preliminary Results
374(3)
Other Photoactive Proteins
377(1)
Future Directions
378(7)
Acknowledgments
379(1)
References
379(6)
Photoelectric Biosensors: Fundamentals and Innovative Designs
385(52)
Felix T. Hong
Introduction
385(2)
AC and DC Photoelectric Effects
387(1)
Electron as a Charge Carrier: An Artificial Light-Driven Electron Pump
388(6)
Proton as a Charge Carrier: Bacteriorhodopsin Membranes
394(18)
Mechanistic Aspects of Signal Generation
395(2)
Component Analysis
397(7)
DC Photoelectric Effect: The Null-Current Method
404(8)
Generalization to Other Photoelectric Systems
412(8)
Prototype Molecular Sensors Based on Photoelectric Effects
418(1)
Two Ways of Configuring Photoelectric Sensors
418(1)
A Light Sensor Based on the AC Photoelectric Effect
418(2)
Specific Ion Sensors Based on the DC Photoelectric Effect
420(1)
Bioelectronic Interfacing
421(2)
Discussions and Concluding Remarks
423(14)
Acknowledgments
429(1)
References
429(8)
Color-Sensitive Biosensors for Imaging Applications
437(24)
Lasse Lensu
Michael Frydrych
Jussi Parkkinen
Sinikka Parkkinen
Timo Jaaskelainen
Introduction
437(1)
Bacteriorhodopsin in Imaging Applications
438(1)
What is Color?
439(2)
Origin of Color Vision
440(1)
Evaluation of Accuracy and Acuteness
440(1)
Model of the Color-Vision System
441(2)
Photosensitive Layer
442(1)
Preprocessing Layer
443(1)
Imaging with Bacteriorhodopsin
443(12)
Gray-Scale Imaging Array
444(1)
Color-Sensitive Imaging Array
445(1)
Electronics
445(1)
Photosensor Electronics
445(2)
Imaging Array Electronics
447(1)
Measurements
448(3)
Sensitivity to Pulsing Frequency
451(1)
Results
452(1)
SOM
453(2)
Imaging Spectral Scenes
455(1)
Conclusions
455(6)
References
459(2)
Protein-Based Photoreceptor Array on Flexible Plastic Substrates
461(44)
Wei Wei Wang
George K. Knopf
Amarjeet S. Bassi
Introduction
462(6)
Bioelectronics
462(1)
Bacteriorhodopsin: Structure and Biological Function
463(1)
Proton Transfer Mechanism in Reconstituted Bacteriorhodopsin Films
464(1)
Bacteriorhodopsin Applications
465(2)
Flexible Electronics Technology
467(1)
Motivation of This Work
467(1)
Flexible Photoreceptor Array Based on Bacteriorhodopsin Film
468(4)
Purple Membrane Preparation
468(1)
Flexible Polyethylene Terephthalate Film With Patterned Indium Tin Oxide Coating
468(1)
Overview of Materials and Techniques
468(1)
Fabrication of Indium Tin Oxide Patterned Polyethylene Terephthalate Film
469(1)
Device Fabrication
469(1)
Principles of Electrophoretic Sedimentation Fabrication
469(1)
Fabrication Conditions
470(1)
Fabrication Process
470(1)
Absorption Spectrum of the Flexible Bacteriorhodopsin Film
470(2)
Array Circuit Design
472(8)
Equivalent Circuit Model of the Individual Pixel
472(2)
Front-End Circuit Design
474(1)
Three Common Front-End Circuit Designs
474(3)
Analysis of the Switched Integrator
477(1)
Overall Circuit Architecture
478(1)
Overview of Array Circuit Architecture
478(1)
Circuit Architecture for Bacteriorhodopsin-Based Photoreceptor Array
479(1)
Performance Analysis
480(11)
Noise and Signal-to-Noise Analysis
480(1)
An Overview of Noise Sources
480(1)
Signal-to-Noise Analysis in Bacteriorhodopsin Photoreceptor
481(2)
Noise Measurement
483(4)
Linearity and Dynamic Range
487(1)
Spectral Response
488(1)
Response Time
488(2)
Pixel Uniformity
490(1)
Array Performance Under Mechanical Bending
491(1)
Application---Motion Detection
491(4)
Overview of Motion Detection
491(1)
Motion Detection Algorithm
492(1)
Implementation
493(2)
Experimental Setup and Results
495(1)
Conclusions
495(10)
Overview
495(2)
Limitations and Recommendations
497(1)
Acknowledgments
498(1)
References
498(7)
Part V Applications in Detection and Monitoring
Optical Biosensors in Foodborne Pathogen Detection
505(16)
Tao Geng
Arun K. Bhunia
Introduction
505(1)
Foodborne Pathogens
506(1)
Detection of Foodborne Pathogens Using Optical Biosensors
507(7)
Surface Plasmon Resonance
507(2)
Resonant Mirror
509(1)
Fiber-Optic Biosensor
510(1)
Array Biosensor
510(2)
Raman Spectroscopy
512(1)
Light-Addressable Potentiometric Sensor
513(1)
Concluding Remarks
514(7)
Acknowledgments
515(1)
References
515(6)
Multiarray Biosensors for Toxicity Monitoring and Bacterial Pathogens
521(18)
Silvana Andreescu
Jason Karasinski
Omowunmi A. Sadik
Introduction
521(1)
Multiarray Biosensors: Concept, Design, and Opportunities for Toxicity Monitoring
522(4)
Multiarray Biosensors for Monitoring Toxic Chemicals
526(3)
Electrochemical Multisensor Array
526(1)
Electronic Nose Technology
527(1)
High-Throughput Multiarray Biosensors for Toxicity Screening
528(1)
Multiarray Biosensors for Pathogen Detection
529(5)
Optical Multiarray Sensors for Pathogen Detection
530(2)
Electrochemical Multiarray Sensors for Pathogen Detection
532(2)
Mass-Sensitive Sensors for Pathogen Detection
534(1)
The Role of Computational Techniques in Processing Multiarray Biosensor Data
534(1)
Conclusion and Future Trends
535(4)
References
536(3)
Approaches to Allergy Detection Using Aptasensors
539(28)
Emile Brys
Sara Tombelli
Maria Minunni
Marco Mascini
Anthony P. F. Turner
Immunoglobulins and Immunoglobulin E
540(7)
Immunoglobulin E
540(1)
The Hypersensitivity Reaction
540(2)
Importance of Immunoglobulin E
542(1)
Current Diagnosis Methods
543(1)
Affinity Biosensors
544(1)
Types of Affinity Biosensor
544(1)
Immunosensors
544(2)
Other Types of Affinity Biosensors
546(1)
Recent Work on Immunoglobulin E Biosensors
546(1)
Surface Plasmon Resonance
547(5)
Theory
547(2)
Concept
549(1)
Applications
549(2)
Future Developments
551(1)
Aptamers
552(9)
Aptamer Libraries
552(1)
Selex
553(2)
Aptamers and Antibodies
555(2)
Applications
557(1)
Two Site Binding Assays
557(1)
Flow Cytometry
557(1)
Biosensors
557(1)
Molecular Beacons
558(1)
Capillary Electrophoresis
559(1)
Molecular Switches
559(1)
Aptamer Arrays
560(1)
Aptazymes
560(1)
Implementation and Illustration of Instrumentation
561(1)
Immobilization
561(1)
Calibration
561(1)
Future Prospects
562(5)
References
562(5)
Biosensors for Virus Detection
567(30)
Ebtisam S. Wilkins
Ravil A. Sitdikov
Introduction
568(8)
Virion and Virus Structure
569(2)
Viral Taxonomy (Classification)
571(1)
How Virus Cause Disease
571(1)
Detection Methods
572(1)
Stains for Diagnosis of Viral Infections
573(1)
Direct Detection in Smears
573(2)
Detection in Tissue Sections
575(1)
Foodborne Illness
575(1)
Biosensors for Detection of Virus and Bacteria
576(7)
Genosensors
576(1)
DNA Chips and DNA Biosensors
576(1)
Differential Pulse Voltammetry and Electrochemical Genosensing
577(1)
Impedance Sensor
577(1)
Immunomagnetic Technique
578(1)
Atomic Force Microscopy-Immunosensor Assay
578(1)
Flow Cytometry
578(1)
Optical Biosensors
579(1)
Piezoelectric-Based Acoustic Wave Devices
579(1)
Capillary Electrophoresis (CE)
580(1)
Biosensors for Environmental Applications
580(1)
Electrochemical Biosensors
580(2)
Potential Markets for Biosensors
582(1)
Commercial Equipment for Monitoring Virus
583(5)
Commercial Kits
583(1)
Directigen™ Flu A, Directigen™ Flu A + B (Becton and Dickinson, Inc.)
583(1)
The Quick Vue Influenza A + B from QUIDEL Company
584(1)
The BinaxNOW® Influenza A and B test (Binax, Inc.)
585(1)
Commercial Equipment
585(1)
Quartz Crystal Microbalance Analyzer: QCM100 (Stanford Research Systems, Inc.)
585(1)
Packaged Interdigitated Microsensor Electrodes, (ABTECH Scientific, Inc.)
586(1)
Biacore 2000 Analyzer, (Biacore Inc.)
587(1)
Future Commercially Available Immunosensors
588(1)
Conclusions
589(8)
References
590(7)
Detection of Hanta, Influenza A, and Parainfluenza Virus
597(20)
Ebtisam S. Wilkins
Ravil A. Sitdikov
Introduction
598(2)
Hanta Virus
598(1)
Avian Influenza
598(2)
Sensor Design and Immunoassay System
600(4)
Detection of Hanta Virus
600(1)
Detection of Parainfluenza and Influenza A Viruses
601(1)
Immunoassay Scheme and Amperometric Detection
601(1)
Optimization of the Assay Parameters
601(1)
Optimization of the Amperometric Measurement Stage
601(1)
The Cyclic Voltammetry of Horse-Radish Peroxidase and Alkaline Phosphatase Enzymatic Products
601(1)
Selection of a Working Potentials
602(2)
Experimental Design
604(1)
Reagents and Materials
604(1)
For Hanta Virus
604(1)
Experimental Procedure
604(1)
For Influenza A Virus and Parainfluenza Virus
605(1)
Results and Discussion for Hanta Virus Test
605(9)
Field Test of Hemolysis Blood Samples
606(2)
Effect of H2O2 Used in the Substrate
608(1)
Alkaline Phosphatase vs. Horse-Radish Peroxidase
608(1)
Nation Layer
609(1)
Result and Discussion of Influenza Samples
610(4)
Conclusions
614(3)
References
614(3)
Perspectives on Biosensor Technology
617(12)
Amarjeet S. Bassi
George K. Knopf
Introduction
617(1)
New Directions of Research
618(4)
Enhancing Sensitivity and Selectivity
618(1)
Biomimetic Sensor Designs
619(1)
Optical Nucleic Acid Sensors
620(1)
Nanostructured Organic Biological Matrices
620(1)
Advances in Carbon Nanotubes
621(1)
Future Impact on Medicine and Health Care
621(1)
Mimicking Biology: Is This a Realistic Goal?
622(3)
Concluding Remarks
625(4)
References
626(3)
Index 629