Latest aspects of this highly sophisticated technology are covered by this first volume
The results are treated in critical detail and contributions demonstrate the applicability of this technology to practical problems in process control, biochip methods, clinical analysis and environmental sciences
Dr. Narayanaswamy is a Reader in Analytical Science at the University of Manchester Institute of Science and Technology. He has over 30 years experience in Analytical Chemistry including over 20 years research in Optical Chemical Sensors & Biosensors and instrumentation. He has about 150 publications, majority of which is in the field of optical sensors that include contributions to textbooks. He is member of the permanent steering committee of Europt(r)ode and a Fellow of the Royal Society of Chemistry.
Prof. Wolfbeis is professor of analytical and interface chemistry at the university of Regensburg. He has a >20 year experience in optical chemical sensing and biosensing, has authored/edited the first book on the subject in (1991) along with approximately 150 original articles on the subject. He is the chairman of the permanent steering committee of Europt(r)ode (the biannual Eur. conference on optical chemical sensor and biosensors).
This interesting book covers latest aspects of a highly sophisticated technology; results treated in critical detail; demonstrates applicability of this technology to practical problems in process control, biochip methods, clinical analysis, environmental sciences
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Optical sensor technology has reached a level of technological maturity that makes it a promising candidate for applications to specific sensing challenges including those in environmental monitoring, in process control (particularly in biotechnology), in clinical assays where low-cost one-way sensing elements are needed, and in other areas. Optical sensors can be used as fiber optic microsensors, as planar coatings in bioreactors, in microtiterplate format, in disposable single-shot devices, and as planar membranes that can be imaged using sensitive cameras. The spectral range extends from the UV to the infrared, and from absorption to emission and to surface plasmon resonance. Hence, a variety of schemes are conceivable, and this first volume of the Springer Series on Chemical Sensors and Biosensors gives a state-of-the-art deillegalscription of this highly sophisticated but very promising technology.
Otto Wolfbeis: Optical Sensor Technology until the Year 2000: A view back (otto.wolfbeis@chemie.uni-regensburg.de ) .-M.E.Diaz-Garcia & R.Badia: Molecularly Imprinted Polymers for Optical Sensing Devices (medg@sauron.quimica..uniovi.es) .-Gerhard Mohr: Chromogenic and fluorogenic reactands: New indicator dyes for monitoring amines, alcohols and aldehydes (gerhard.mohr@uni-jena.de).-C.Preininger & U.Sauer: Design, quality control and normalization of biosensor chips (claudia.preininger@arcs.ac.at) .-F.Chuang & B.W.Colston Rapid, Multiplex Optical Biodetection for Point-of-Care Applications (colston1@poptop.llnl.gov).-T.Vo-Dinh & G.Griffin Multifunctional Biochips for Medical Diagnostics and Pathogen Detection (vodinh@ornl.gov) .-J.Homola Surface Plasmon Resonance Biosensors for Food Safety (homola@ure.cas.cz) .-P.Simon & F.Kvasnik: NIR Dyes for Ammonia and HCl Sensors (simon@cvt.stuba.sk) .-J.D.Wright et.al: Piezo-Optic Dosimeters for Occupational and Environmental Monitoring (j.d.wright@ukc.ac.uk) .-L.M.Lechuga, F.Prieto & B.Sepulveda: Interferometric Biosensors for Environmental Pollution Detection (laura@imm.cnm.csic.es) .-M.C.Morino-Bondi, G.Orellana & M.Bedoya: Fiber Optic Sensors for Humidity Monitoring mcmbondi@quim.ucm.es .-B.Swindlehurst & R.Narayanaswamy: Optical Sensing of pH in Low Ionic Strength Waters (Ramaier.Narayanaswamy@umist.ac.uk) .-G. Orellana & D.Garcia-Fresnadillo: Environmental and Industrial Optosensing with Tailored Luminescent Ru(II) Polypyridyl Complexes (orellana@quim.ucm.es) .-K.E.Sapford & F.S.Ligler: TIRF Array Biosensor for Environmental Monitoring (fligler@cbmse.nrl.navy.mil) .-H.S.Voraberger: Optical Techniques for determination and sensing of Hydrogen Peroxide in Industrial and Environmental Samples (hannes.voraberger@joanneum.at) 8 Chapter 8 P.Simon & F.Kvasnik NIR Dyes for Ammonia and HCl Sensors simon@cvt.stuba.sk 9 Chapter 9 J.D.Wright et.al Piezo-Optic Dosimeters for Occupational and Environmental Monitoring j.d.wright@ukc.ac.uk 10 Chapter 10 L.M.Lechuga, F.Prieto & B.Sepulveda Interferometric Biosensors for Environmental Pollution Detection laura@imm.cnm.csic.es 11 Chapter 11 M.C.Morino-Bondi, G.Orellana & M.Bedoya Fiber Optic Sensors for Humidity Monitoring mcmbondi@quim.ucm.es 12 Chapter 12 B.Swindlehurst & R.Narayanaswamy Optical Sensing of pH in Low Ionic Strength Waters Ramaier.Narayanaswamy@umist.ac.uk 13 Chapter 13 G. Orellana & D.Garcia-Fresnadillo Environmental and Industrial Optosensing with Tailored Luminescent Ru(II) Polypyridyl Complexes orellana@quim.ucm.es 14 Chapter 14 K.E.Sapford & F.S.Ligler TIRF Array Biosensor for Environmental Monitoring fligler@cbmse.nrl.navy.mil 15 Chapter 15 H.S.Voraberger Optical Techniques for determination and sensing of Hydrogen Peroxide in Industrial and Environmental Samples hannes.voraberger@joanneum.at
Optical sensor technology has reached a level of technological maturity that makes it a promising candidate for applications to specific sensing challenges including those in environmental monitoring, in process control (particularly in biotechnology), in clinical assays were low-cost one-way sensing elements are needed, and in other areas. Optical sensors can be used as fiber optic microsensors, as planar coatings in bioreactors, in microtiterplate format, in disposable single-shot devices, and as planar membranes that can be imaged using sensitive cameras. The spectral range extends from the UV to the infrared, and from absorption to emission to surface plasmon resonance. Hence, a variety of schemes are conceivable, and this volume gives a state of the art deillegalscription of the state of the art.
From the reviews:
"This book is particularly summarizing the various types and developments in optical sensor technology during the past two decades, and gives also an insight to the future trends in this permanently growing field. This book is providing knowledge on a variety of optical sensor techniques ... and is, therefore, highly recommended to graduate students and experienced researchers, who are engaged in this interesting scientific field in academia and industry." (Advances in Food Science – AFS, Vol. 27 (1), 2005)
"This book summarized various types of developments in optical sensor science over the past two decades with an insight to future trends. ... This book will be useful for scientists and students working in the field of optical sensors and biosensors, particularly modern immuno- and genosensors." (Chemia Analityczna, Issue 49, 2004)
"This book provides a good overview of the state of the art in optical sensors for industrial, environmental and diagnostic applications. ... This unique book contributes a concise collection of knowledge to this highly interdisciplinary field ... . is an ideal starting point for interested readers and a valuable source of information to scientists. ... The high density of information together with a `trend analysis´ of future directions provides a highly valuable content to the readership." (Guenther Proll, Analytical and Bioanalytical Chemistry, Vol. 381, 2005)
Optical sensor technology has reached a level of technological maturity that makes it a promising candidate for applications to specific sensing challenges including those in environmental monitoring, in process control (particularly in biotechnology), in clinical assays where low-cost one-way sensing elements are needed, and in other areas. Optical sensors can be used as fiber optic microsensors, as planar coatings in bioreactors, in microtiterplate format, in disposable single-shot devices, and as planar membranes that can be imaged using sensitive cameras. The spectral range extends from the UV to the infrared, and from absorption to emission and to surface plasmon resonance. Hence, a variety of schemes are conceivable, and this first volume of the Springer Series on Chemical Sensors and Biosensors gives a state-of-the-art deillegalscription of this highly sophisticated but very promising technology.
1 Optical Technology until the Year 2000: An Historical Overview.- 2 Molecularly Imprinted Polymers for Optical Sensing Devices.- 3 Chromogenic and Fluorogenic Reactands: New Indicator Dyes for Monitoring Amines, Alcohols and Aldehydes.- 4 Design, Quality Control and Normalization of Biosensor Chips.- 5 Rapid, Multiplex Optical Biodetection for Point-of-Care Applications.- 6 Multi-functional Biochip for Medical Diagnostics and Pathogen Detection.- 7 Surface Plasmon Resonance Biosensors for Food Safety.- 8 NIR Dyes for Ammonia and HCI Sensors.- 9 Piezo-Optical Dosimeters for Occupational and Environmental Monitoring.- 10 Interferometric Biosensors for Environmental Pollution Detection.- 11 Fibre-optic Sensors for Humidity Monitoring.- 12 Optical Sensing of pH in Low Ionic Strength Waters.- 13 Environmental and Industrial Optosensing with Tailored Luminescent Ru(II) Polypyridyl Complexes.- 14 TIFR Array Biosensor for Environmental Monitoring.- 15 Optical Techniques for Determination and Sensing of Hydrogen Peroxide in Industrial and Environmental Samples.
From the reviews:
"This book is particularly summarizing the various types and developments in optical sensor technology during the past two decades, and gives also an insight to the future trends in this permanently growing field. This book is providing knowledge on a variety of optical sensor techniques ... and is, therefore, highly recommended to graduate students and experienced researchers, who are engaged in this interesting scientific field in academia and industry." (Advances in Food Science - AFS, Vol. 27 (1), 2005)
"This book summarized various types of developments in optical sensor science over the past two decades with an insight to future trends. ... This book will be useful for scientists and students working in the field of optical sensors and biosensors, particularly modern immuno- and genosensors." (Chemia Analityczna, Issue 49, 2004)
"This book provides a good overview of the state of the art in optical sensors for industrial, environmental and diagnostic applications. ... This unique book contributes a concise collection of knowledge to this highly interdisciplinary field ... . is an ideal starting point for interested readers and a valuable source of information to scientists. ... The high density of information together with a 'trend analysis' of future directions provides a highly valuable content to the readership." (Guenther Proll, Analytical and Bioanalytical Chemistry, Vol. 381, 2005)
Dr. Narayanaswamy is a Reader in Analytical Science at the University of Manchester Institute of Science and Technology. He has over 30 years experience in Analytical Chemistry including over 20 years research in Optical Chemical Sensors & Biosensors and instrumentation. He has about 150 publications, majority of which is in the field of optical sensors that include contributions to textbooks. He is member of the permanent steering committee of Europt(r)ode and a Fellow of the Royal Society of Chemistry.
Prof. Wolfbeis is professor of analytical and interface chemistry at the university of Regensburg. He has a >20 year experience in optical chemical sensing and biosensing, has authored/edited the first book on the subject in (1991) along with approximately 150 original articles on the subject. He is the chairman of the permanent steering committee of Europt(r)ode (the biannual Eur. conference on optical chemical sensor and biosensors).
Über den Autor
Dr. Narayanaswamy is a Reader in Analytical Science at the University of Manchester Institute of Science and Technology. He has over 30 years experience in Analytical Chemistry including over 20 years research in Optical Chemical Sensors & Biosensors and instrumentation. He has about 150 publications, majority of which is in the field of optical sensors that include contributions to textbooks. He is member of the permanent steering committee of Europt(r)ode and a Fellow of the Royal Society of Chemistry.
>20 year experience in optical chemical sensing and biosensing, has authored/edited the first book on the subject in (1991) along with approximately 150 original articles on the subject. He is the chairman of the permanent steering committee of Europt(r)ode (the biannual Eur. conference on optical chemical sensor and biosensors).
Inhaltsverzeichnis
Klappentext
Optical sensor technology has reached a level of technological maturity that makes it a promising candidate for applications to specific sensing challenges including those in environmental monitoring, in process control (particularly in biotechnology), in clinical assays where low-cost one-way sensing elements are needed, and in other areas. Optical sensors can be used as fiber optic microsensors, as planar coatings in bioreactors, in microtiterplate format, in disposable single-shot devices, and as planar membranes that can be imaged using sensitive cameras. The spectral range extends from the UV to the infrared, and from absorption to emission and to surface plasmon resonance. Hence, a variety of schemes are conceivable, and this first volume of the Springer Series on Chemical Sensors and Biosensors gives a state-of-the-art deillegalscription of this highly sophisticated but very promising technology.
Latest aspects of this highly sophisticated technology are covered by this first volume
The results are treated in critical detail and contributions demonstrate the applicability of this technology to practical problems in process control, biochip methods, clinical analysis and environmental sciences
Includes supplementary material: sn.pub/extras
