We modeled the dynamics of hydrogen and deuterium adsorbed on palladium nanoparticles including the heat generation induced by the chemical adsorption and desorption, as well as palladium-catalyzed reactions. Our calculations based on the proposed model reproduce the experimental time-evolution of pressure and temperature with a single set of fitting parameters for hydrogen and deuterium injection. The model we generated with a highly generalized set of formulations can be applied for any combination of a gas species and a catalytic adsorbent/absorbent. Our model can be used as a basis for future research into hydrogen storage and solid-state nuclear fusion technologies
This is the accepted manuscript and supporting information of an article published in the journal Sm...
Absorbed hydrogen can dramatically increase hydrogenation activity of Pd nanoparticles and was predi...
Elucidation of the nature of hydrogen interactions with palladium nanoparticles is expected to play ...
AbstractWe modeled the dynamics of hydrogen and deuterium adsorbed on palladium nanoparticles includ...
Palladium-hydrogen is a prototypical metal-hydrogen system. It is therefore not at all surprising th...
Understanding the transport of hydrogen within metals is crucial for the advancement of energy stora...
Understanding the transport of hydrogen within metals is crucial for the advancement of energy stora...
Mechanism of heat generation from loading gaseous hydrogen isotopes into palladium nanoparticles wri...
A dynamical model is proposed to account for cold fusion processes in deuterated palladium on the ba...
Palladium can readily dissociate and absorb hydrogen from the gas phase, making it applicable in hyd...
Understanding the transport of hydrogen within metallic nanomaterials is crucial for the advancement...
Understanding the transport of hydrogen within metallic nanomaterials is crucial for the advancement...
The potential and properties of palladium hollow nanoparticles (hNPs) as a possible H storage materi...
| openaire: EC/H2020/952184/EU//HERMES Funding Information: This project has received funding from t...
This is the accepted manuscript and supporting information of an article published in the journal Sm...
This is the accepted manuscript and supporting information of an article published in the journal Sm...
Absorbed hydrogen can dramatically increase hydrogenation activity of Pd nanoparticles and was predi...
Elucidation of the nature of hydrogen interactions with palladium nanoparticles is expected to play ...
AbstractWe modeled the dynamics of hydrogen and deuterium adsorbed on palladium nanoparticles includ...
Palladium-hydrogen is a prototypical metal-hydrogen system. It is therefore not at all surprising th...
Understanding the transport of hydrogen within metals is crucial for the advancement of energy stora...
Understanding the transport of hydrogen within metals is crucial for the advancement of energy stora...
Mechanism of heat generation from loading gaseous hydrogen isotopes into palladium nanoparticles wri...
A dynamical model is proposed to account for cold fusion processes in deuterated palladium on the ba...
Palladium can readily dissociate and absorb hydrogen from the gas phase, making it applicable in hyd...
Understanding the transport of hydrogen within metallic nanomaterials is crucial for the advancement...
Understanding the transport of hydrogen within metallic nanomaterials is crucial for the advancement...
The potential and properties of palladium hollow nanoparticles (hNPs) as a possible H storage materi...
| openaire: EC/H2020/952184/EU//HERMES Funding Information: This project has received funding from t...
This is the accepted manuscript and supporting information of an article published in the journal Sm...
This is the accepted manuscript and supporting information of an article published in the journal Sm...
Absorbed hydrogen can dramatically increase hydrogenation activity of Pd nanoparticles and was predi...
Elucidation of the nature of hydrogen interactions with palladium nanoparticles is expected to play ...