We use molecular dynamics simulations to explore the potential use of amorphous metals in intermolecular reactive composites. Our simulations show that amorphous Ni/Al nanolaminates lead to an increase in temperature of up to 260 K over their crystalline counterparts; this increase corresponds to over 20% of the heat of fusion and can be explained in terms of the amorphization energy. The reactions are diffusion controlled and crystallization is observed in laminates with relatively long periods where high temperatures are experienced for sufficiently long times prior to intermixing; the effect of this process on the energetics and time involved in the reaction are characterized
The Ni-Al nanolayer is exothermic material self-propagated and reacted by thermal or mechanical stim...
This dissertation employs multiscale modeling for the purpose of investigating reactions occurring i...
International audienceThe reactivity of a layered Ni-Al-Ni system is studied by means of molecular d...
Molecular dynamics (MD) simulations have been used to study the underlying physics and atomistic mec...
Molecular dynamics (MD) simulations have been used to study the underlying physics and atomistic mec...
We use molecular dynamics to characterize the exothermic chemistry of Ni/Al nanolaminates for variou...
International audienceThis work focuses on a class of nano-laminated Ni/Al composites fabricated by ...
International audienceReactive joining with Ni/Al nanocomposites is an innovative technology that pr...
To characterize the self-propagating, high-temperature exothermic alloying reactions of Ni/Al nanosc...
Intermolecular reactive composites find diverse applications in defense, microelectronics and medici...
Abstract. Metals which can form intermetallic compounds by exothermic reactions constitute a class o...
Using molecular dynamics simulation in combination with the embedded atom method we analyze the allo...
The kinetic reaction in a Ni-coated Al nanoparticle with equi-atomic fractions and diameter of appro...
Using molecular dynamics simulation in combination with an embedded atom method potential we analyze...
Interfacial reactions play an important but often overlooked role in the performance of reactive mat...
The Ni-Al nanolayer is exothermic material self-propagated and reacted by thermal or mechanical stim...
This dissertation employs multiscale modeling for the purpose of investigating reactions occurring i...
International audienceThe reactivity of a layered Ni-Al-Ni system is studied by means of molecular d...
Molecular dynamics (MD) simulations have been used to study the underlying physics and atomistic mec...
Molecular dynamics (MD) simulations have been used to study the underlying physics and atomistic mec...
We use molecular dynamics to characterize the exothermic chemistry of Ni/Al nanolaminates for variou...
International audienceThis work focuses on a class of nano-laminated Ni/Al composites fabricated by ...
International audienceReactive joining with Ni/Al nanocomposites is an innovative technology that pr...
To characterize the self-propagating, high-temperature exothermic alloying reactions of Ni/Al nanosc...
Intermolecular reactive composites find diverse applications in defense, microelectronics and medici...
Abstract. Metals which can form intermetallic compounds by exothermic reactions constitute a class o...
Using molecular dynamics simulation in combination with the embedded atom method we analyze the allo...
The kinetic reaction in a Ni-coated Al nanoparticle with equi-atomic fractions and diameter of appro...
Using molecular dynamics simulation in combination with an embedded atom method potential we analyze...
Interfacial reactions play an important but often overlooked role in the performance of reactive mat...
The Ni-Al nanolayer is exothermic material self-propagated and reacted by thermal or mechanical stim...
This dissertation employs multiscale modeling for the purpose of investigating reactions occurring i...
International audienceThe reactivity of a layered Ni-Al-Ni system is studied by means of molecular d...