Microcantilever-based biosensors are rapidly becoming an enabling sensing technology for a variety of label-free biological applications due to their extreme applicability, versatility and low cost. These sensors operate through the adsorption of species on the functionalized surface of microcantilevers. The adsorption of biological species induces surface stress which originates from the molecular interactions such as adhesion forces of attraction/repulsion, electrostatic forces or the surface charge redistribution of the underlying substrate. This surface stress, consequently, alters the resonance frequency of the microcantilever beam. This study presents a general framework towards modeling resonance frequency changes induced due to the ...
Applications of microcantilevers as biosensors have been explored by many researchers for the applic...
We study the effect of surface roughness on the resonance frequency of micro-cantilever sensors. The...
Microcantilever biosensors produce cantilever bending due to differential surface stress between upp...
The main causes for the deflection of microcantilevers embedded in micromechanical biodetection syst...
By performing experiments of adsorption of the bacteria Escherichia coli on singly clamped microcant...
Surface stress is widely used to characterize the adsorption effect on the mechanical response of na...
This study presents the deflection, resonant frequency and stress results of rectangular, triangular...
Micro/nano cantilever represents the recent most diffuse mechanical biosensor since there are two ma...
Microcantilever sensors are commonly used as chemical and biological sensors. Interactions between t...
Abstract. In this paper, some problems concerning surface effects of microcantilever-based sensors a...
When microcantilevers are used in the dynamic mode, the resonance shift uponmaterial adsorption depe...
Ultrasensitive physical, chemical and biological sensors have emerged in the last decade based on th...
We have measured the effect of bacteria adsorption on the resonant frequency of microcantilevers as ...
The decrease in resonant frequency of a classical cantilever provides a sensitive measure of the mas...
We have measured the effect of the bacteria adsorption on the resonant frequency of microcantilevers...
Applications of microcantilevers as biosensors have been explored by many researchers for the applic...
We study the effect of surface roughness on the resonance frequency of micro-cantilever sensors. The...
Microcantilever biosensors produce cantilever bending due to differential surface stress between upp...
The main causes for the deflection of microcantilevers embedded in micromechanical biodetection syst...
By performing experiments of adsorption of the bacteria Escherichia coli on singly clamped microcant...
Surface stress is widely used to characterize the adsorption effect on the mechanical response of na...
This study presents the deflection, resonant frequency and stress results of rectangular, triangular...
Micro/nano cantilever represents the recent most diffuse mechanical biosensor since there are two ma...
Microcantilever sensors are commonly used as chemical and biological sensors. Interactions between t...
Abstract. In this paper, some problems concerning surface effects of microcantilever-based sensors a...
When microcantilevers are used in the dynamic mode, the resonance shift uponmaterial adsorption depe...
Ultrasensitive physical, chemical and biological sensors have emerged in the last decade based on th...
We have measured the effect of bacteria adsorption on the resonant frequency of microcantilevers as ...
The decrease in resonant frequency of a classical cantilever provides a sensitive measure of the mas...
We have measured the effect of the bacteria adsorption on the resonant frequency of microcantilevers...
Applications of microcantilevers as biosensors have been explored by many researchers for the applic...
We study the effect of surface roughness on the resonance frequency of micro-cantilever sensors. The...
Microcantilever biosensors produce cantilever bending due to differential surface stress between upp...