International audienceIn situ deposition of a thin (∼5 nm) layer of copper between Al and CuO layers is shown to increase the overall nanolaminate material reactivity. A combination of transmission electron microscopy imaging, in situ infrared spectroscopy, low energy ion scattering measurements, and first-principles calculations reveals that copper spontaneously diffuses into aluminum layers (substantially less in CuO layers). The formation of an interfacial Al:Cu alloy with melting temperature lower than pure Al metal is responsible for the enhanced reactivity, opening a route to controlling the stochiometry of the aluminum layer and increasing the reactivity of the nanoenergetic multilayer systems in general
International audienceAl/CuO energetic structure are attractive materials due to their high thermal ...
International audienceIn this study we demonstrate the effect of change of the sputtering power and ...
International audienceSputter‐deposited Al/CuO multilayers represent the state‐of‐the‐art of energet...
International audienceIn situ deposition of a thin (∼5 nm) layer of copper between Al and CuO layers...
In situ deposition of a thin (∼5 nm) layer of copper between Al and CuO layers is shown to increase ...
International audienceNanoenergetic materials are beginning to play an important role in part becaus...
International audienceInterface layers between reactive and energetic materials in nanolaminates or ...
International audienceThe surface chemistry associated with the synthesis of energetic nanolaminates...
International audienceNanolaminated materials made of nanometer-thick layers are nowadays facing the...
International audienceThis paper reports on the reaction characteristic of Al/CuO reactive nanolamin...
Al/CuO energetic structure are attractive materials due to their high thermal output and propensity ...
International audienceSputter-deposited Al/CuO multilayers exhibit fast combustion reactions in whic...
International audienceEnergetic materials are the only attractive sources of " dormant " energy, enj...
International audienceAl/CuO energetic structure are attractive materials due to their high thermal ...
International audienceIn this study we demonstrate the effect of change of the sputtering power and ...
International audienceSputter‐deposited Al/CuO multilayers represent the state‐of‐the‐art of energet...
International audienceIn situ deposition of a thin (∼5 nm) layer of copper between Al and CuO layers...
In situ deposition of a thin (∼5 nm) layer of copper between Al and CuO layers is shown to increase ...
International audienceNanoenergetic materials are beginning to play an important role in part becaus...
International audienceInterface layers between reactive and energetic materials in nanolaminates or ...
International audienceThe surface chemistry associated with the synthesis of energetic nanolaminates...
International audienceNanolaminated materials made of nanometer-thick layers are nowadays facing the...
International audienceThis paper reports on the reaction characteristic of Al/CuO reactive nanolamin...
Al/CuO energetic structure are attractive materials due to their high thermal output and propensity ...
International audienceSputter-deposited Al/CuO multilayers exhibit fast combustion reactions in whic...
International audienceEnergetic materials are the only attractive sources of " dormant " energy, enj...
International audienceAl/CuO energetic structure are attractive materials due to their high thermal ...
International audienceIn this study we demonstrate the effect of change of the sputtering power and ...
International audienceSputter‐deposited Al/CuO multilayers represent the state‐of‐the‐art of energet...