Three-dimensional diodes fabricated by electrochemical etching are exposed to tritium gas at pressures from 0.05 to 33 atm at room temperature to examine its power scaling performance. It is shown that the three-dimensional microporous structure overcomes the self-absorption limited saturation of beta flux at high tritium pressures. These results are contrasted against the three-dimensional device powered in one instance by tritium absorbed in the near surface region of the three-dimensional microporous network, and in another by a planar scandium tritide foil. These findings suggest that direct tritium occlusion in the near surface of three-dimensional diode can improve the specific power production
Experimental results on tritium effusion, along with the tritium depth profiles, from hydrogenated a...
To investigate microscopic processes of trapping and diffusion of tritium on/through materials, auto...
Abstract—Autonomous MEMS require similarly miniatur-ized power sources. In this paper, we present th...
Three-dimensional diodes fabricated by electrochemical etching are exposed to tritium gas at pressur...
Tritium-powered betavoltaic micropower sources using contact potential difference (CPD) are demonstr...
An idealized design of a silicon betavoltaic battery with a tritium source is considered, in which a...
Long-term stability of tritium voltaic battery was studied by titanium tritide sources in situ radia...
Hydrogenated amorphous silicon betavoltaic devices are studied both by simulation and experimentally...
Three-dimensional (3D) electrode structures have the potential to significantly improve Li-ion batte...
Optimized three-dimensional (3D) electrode architectures hold the promise of improving battery perfo...
An on-chip compatible method to fabricate high energy density TiO2 thin film electrodes on 3D-struct...
grantor: University of TorontoThe do saddle-field glow discharge deposition technique has...
A betavoltaic cell is a type of radioisotope power source where the energy of beta radiation is conv...
An on-chip compatible method to fabricate high energy density TiO2 thin film electrodes on 3D-struct...
Mechanical energy is one of the most ubiquitous energies in our surroundings, which can be converted...
Experimental results on tritium effusion, along with the tritium depth profiles, from hydrogenated a...
To investigate microscopic processes of trapping and diffusion of tritium on/through materials, auto...
Abstract—Autonomous MEMS require similarly miniatur-ized power sources. In this paper, we present th...
Three-dimensional diodes fabricated by electrochemical etching are exposed to tritium gas at pressur...
Tritium-powered betavoltaic micropower sources using contact potential difference (CPD) are demonstr...
An idealized design of a silicon betavoltaic battery with a tritium source is considered, in which a...
Long-term stability of tritium voltaic battery was studied by titanium tritide sources in situ radia...
Hydrogenated amorphous silicon betavoltaic devices are studied both by simulation and experimentally...
Three-dimensional (3D) electrode structures have the potential to significantly improve Li-ion batte...
Optimized three-dimensional (3D) electrode architectures hold the promise of improving battery perfo...
An on-chip compatible method to fabricate high energy density TiO2 thin film electrodes on 3D-struct...
grantor: University of TorontoThe do saddle-field glow discharge deposition technique has...
A betavoltaic cell is a type of radioisotope power source where the energy of beta radiation is conv...
An on-chip compatible method to fabricate high energy density TiO2 thin film electrodes on 3D-struct...
Mechanical energy is one of the most ubiquitous energies in our surroundings, which can be converted...
Experimental results on tritium effusion, along with the tritium depth profiles, from hydrogenated a...
To investigate microscopic processes of trapping and diffusion of tritium on/through materials, auto...
Abstract—Autonomous MEMS require similarly miniatur-ized power sources. In this paper, we present th...