A surface acoustic wave (SAW) sensor with titania nanotubular layer as the gas sensitive material has been developed. This SAW 433 MHz two-port resonator has been fabricated on ST-cut quartz substrate and functionally characterized as an oscillator in dual differential mode. Solvent-casting coatings of anodized TiO2 nanotubes have been used for coating the devices for room-temperature detection of Volatile Organic Compounds (VOCs) including methanol, ethanol, acetone and m-xylene as well as hydrogen gas. The results demonstrate linear responses and high sensitivity of these sensors with the largest sensitivity achieved for ethanol to be 156 kHz/ppm at room temperature
A chemical sensing system based on arrays of surface acoustic wave (SAW) delay lines has been develo...
The gas sensing properties of graphene-like nano-sheets deposited on 36° YX lithium tantalate (LiTaO...
Surface acoustic wave (SAW) sensors have significant potential to monitor toxic gases, owing to thei...
A surface acoustic wave (SAW) gas sensor with Nb-doped titania nanoparticles layers as chemically in...
International audienceSurface acoustic wave (SAW) sensor on ATquartz piezoelectric substrate has bee...
A Surface acoustic wave (SAW) sensor using a ZnO guiding layer on 36 degrees Y-cut X-propagation LiT...
Support IFCPAR/CEFIPRAInternational audienceAs previously presented, Surface Acoustic Wave or SAW-ba...
Amorphous titanium dioxide (TiO2) and gold (Au) doped TiO2-based surface acoustic wave (SAW) sensors...
Acoustic wave technology has been used for gas sensing applications for several decades. A SAW devic...
Surface acoustic wave (SAW) resonators represent some of the most prominent acoustic devices for che...
AbstractSurface acoustic wave (SAW) gas sensors based on carbon nanotube polymer composites as sensi...
A double SAW resonator system was developed as a novel method for gas sensing applications. The prop...
Amorphous titanium dioxide (TiO2) and gold (Au) doped TiO2-based surface acoustic wave (SAW) sensors...
This thesis addresses the development of new gas sensor using surface acoustic wave (SAW) technology...
International audienceThis study presents Shear Horizontal Surface Acoustic Wave (SH-SAW) sensor bas...
A chemical sensing system based on arrays of surface acoustic wave (SAW) delay lines has been develo...
The gas sensing properties of graphene-like nano-sheets deposited on 36° YX lithium tantalate (LiTaO...
Surface acoustic wave (SAW) sensors have significant potential to monitor toxic gases, owing to thei...
A surface acoustic wave (SAW) gas sensor with Nb-doped titania nanoparticles layers as chemically in...
International audienceSurface acoustic wave (SAW) sensor on ATquartz piezoelectric substrate has bee...
A Surface acoustic wave (SAW) sensor using a ZnO guiding layer on 36 degrees Y-cut X-propagation LiT...
Support IFCPAR/CEFIPRAInternational audienceAs previously presented, Surface Acoustic Wave or SAW-ba...
Amorphous titanium dioxide (TiO2) and gold (Au) doped TiO2-based surface acoustic wave (SAW) sensors...
Acoustic wave technology has been used for gas sensing applications for several decades. A SAW devic...
Surface acoustic wave (SAW) resonators represent some of the most prominent acoustic devices for che...
AbstractSurface acoustic wave (SAW) gas sensors based on carbon nanotube polymer composites as sensi...
A double SAW resonator system was developed as a novel method for gas sensing applications. The prop...
Amorphous titanium dioxide (TiO2) and gold (Au) doped TiO2-based surface acoustic wave (SAW) sensors...
This thesis addresses the development of new gas sensor using surface acoustic wave (SAW) technology...
International audienceThis study presents Shear Horizontal Surface Acoustic Wave (SH-SAW) sensor bas...
A chemical sensing system based on arrays of surface acoustic wave (SAW) delay lines has been develo...
The gas sensing properties of graphene-like nano-sheets deposited on 36° YX lithium tantalate (LiTaO...
Surface acoustic wave (SAW) sensors have significant potential to monitor toxic gases, owing to thei...