A mass manufacturable impedance based, palladium doped porous silicon sensor, was fabricated for hydrogen detection. The sensor was built using electrochemical etching to produce mesoporous silicon. Four nanometers of palladium was defused directly into the porous silicon and another four nanometers of Pd was deposited on the defused surface to enhance sensing. The sensor was tested in a sealed chamber in which the impedance was measured while hydrogen in nitrogen was ranged from 0-2 percent. Unlike conventional hydrogen sensors this sensor responded at room temperature to changes in hydrogen concentration. The electrical impedance response due to adsorption and desorption of hydrogen reacted relatively quickly due to the nanoparticle natur...
Molecular hydrogen is a combustible gas that is produced in large quantities by many industries and ...
Palladium nanowires were fabricated on silicon substrates using conventional microfabrication techni...
We report the development and testing of a novel hydrogen sensor that shows a very peculiar response...
A mass manufacturable impedance based, palladium doped porous silicon sensor, was fabricated for hyd...
A novel, resistance-based porous silicon sensor with Pd nano structures as the hydrogen sensing laye...
A novel, resistance-based porous silicon sensor with Pd nano structures as the hydrogen sensing laye...
A novel, resistance-based porous silicon sensor with Pd nano structures as the hydrogen sensing laye...
Porous silicon has a particularly large surface area available in a limited volume, tens or hundreds...
Palladium was electrodeposited onto lithographically patterned Si(100) “μ-channels” with dimensions ...
Palladium was electrodeposited onto lithographically patterned Si(100) “μ-channels” with dimensions ...
In this study, the sensing properties of palladium-doped porous silicon (Pd/p-Si) substrates for low...
This work presents the design, fabrication, and characterization of a hydrogen sensor based on a pal...
Thin palladium layer was used as a gate material in a MOSFET device to obtain a hydrogen gas sensor....
The authors investigate the influence of hydrogen peroxide concentration on the conductivity of the ...
In this work, we reported on room temperature porous silicon (PS) and embedding PS using simple and ...
Molecular hydrogen is a combustible gas that is produced in large quantities by many industries and ...
Palladium nanowires were fabricated on silicon substrates using conventional microfabrication techni...
We report the development and testing of a novel hydrogen sensor that shows a very peculiar response...
A mass manufacturable impedance based, palladium doped porous silicon sensor, was fabricated for hyd...
A novel, resistance-based porous silicon sensor with Pd nano structures as the hydrogen sensing laye...
A novel, resistance-based porous silicon sensor with Pd nano structures as the hydrogen sensing laye...
A novel, resistance-based porous silicon sensor with Pd nano structures as the hydrogen sensing laye...
Porous silicon has a particularly large surface area available in a limited volume, tens or hundreds...
Palladium was electrodeposited onto lithographically patterned Si(100) “μ-channels” with dimensions ...
Palladium was electrodeposited onto lithographically patterned Si(100) “μ-channels” with dimensions ...
In this study, the sensing properties of palladium-doped porous silicon (Pd/p-Si) substrates for low...
This work presents the design, fabrication, and characterization of a hydrogen sensor based on a pal...
Thin palladium layer was used as a gate material in a MOSFET device to obtain a hydrogen gas sensor....
The authors investigate the influence of hydrogen peroxide concentration on the conductivity of the ...
In this work, we reported on room temperature porous silicon (PS) and embedding PS using simple and ...
Molecular hydrogen is a combustible gas that is produced in large quantities by many industries and ...
Palladium nanowires were fabricated on silicon substrates using conventional microfabrication techni...
We report the development and testing of a novel hydrogen sensor that shows a very peculiar response...