TY  - BOOK
AU  - Sadana,Ajit
TI  - Binding and dissociation kinetics for different biosensor applications using fractals
SN  - 0444527842
U1  - 610.28 
PY  - 2006///
CY  - [S.l.] 
PB  - Elsevier Science
KW  - Medical equipment & techniques
KW  - Science
KW  - Science/Mathematics
KW  - Biotechnology
KW  - Chemistry - Analytic
KW  - Life Sciences - Biophysics
KW  - MEDICAL / Allied Health Services / Medical Technology
KW  - Science / Biotechnology
KW  - Science / Chemistry / Analytic
KW  - Science / Life Sciences / Biophysics
KW  - Biosensors
KW  - Detection
KW  - Fractals
KW  - Mathematics
KW  - Pathogenic microorganisms
KW  - Medical Nursing & Ancillary Services
N1  - The application of biosensors is expanding in different areas. These are portable and convenient devices that permit the rapid, accurate, and reliable detection of analytes of interest present either in the atmosphere or in aqueous or in liquid phases. The detection of glucose levels in blood for the effective management of diabetes is one. Though different biosensors have been designed for an increasing number of applications, the kinetics of binding (and dissociation) of analytes by the receptors on the biosensor surfaces has not been given enough attention in the open literature. This is a very important area of investigation since it significantly impacts biosensor performance parameters such as stability, sensitivity, selectivity, response time, regenerability, etc. Binding and Dissociation Kinetics for Different Biosensor Applications Using Fractals addresses this critical need besides helping to correct or demonstrate the need to modify the present software available with commercial biosensors that determines the kinetics of analyte-receptor reactions on biosensor surfaces. * first book to provide detailed kinetic analysis of the binding and dissociation reactions that are occuring on the biosensor surface * addresses the area of analyte-receptor binding and dissociation kinetics occurring on biosensor surfaces * provides physical insights into reactions occuring on biosensor surfaces
ER  -