Microwave energy has been applied to ignite the combustion synthesis (CS) in Ni + Al (50: 50 at %) powder mixtures in order to join dissimilar materials, in particular high-temperature metals. A numerical simulation was performed in order to obtain the data otherwise difficult to be experimentally measured and to develop a simplified predictive model of microwave ignited and sustained CS in metal powder compacts for joining applications. Experimental and numerical simulation results demonstrate that joining can be rapidly obtained by microwave ignition of the combustion synthesis characterized by a minimum extension of heat affected zones in the joined substrates
Microwave heating fundamentally differs from other heating techniques as the consequence of its uniq...
The use of microwaves to perform inorganic synthesis allows the direct transfer of electromagnetic e...
Combustion synthesis of aluminide intermetallics starting from reactive powders mixtures comprising ...
Microwave energy has been applied to ignite the combustion synthesis (CS) in Ni + Al (50: 50 at %) p...
Microwave energy has been exploited to ignite combustion synthesis (CS) reactions of properly design...
The process of Combustion synthesis (CS) is based on the highly exothermic reaction by reactants, wh...
A simplified model of the microwave-assisted combustion synthesis of Ni and Al metal powders to form...
The process of Combustion synthesis (CS) is based on the highly exothermic reaction by reactants,whi...
Microwave (MW) irradiation at 2.45 GHz is a rapid and efficient way to ignite different kind of high...
In this work microwaves (MWs) were used to ignite and sustain, the Combustion Synthesis (CS) of micr...
Combustion synthesis (CS) is a materials manufacturing technique, which gained increased attention b...
The microwave-assisted combustion synthesis of NiAl intermetallics in a single mode applicator has b...
Due to the interesting combination of lightweight and high refractoriness, Al-based intermetallic co...
Aim of this work is to present the results concerning the application of microwave assisted combusti...
The use of microwaves to perform inorganic synthesis allows the direct transfer of electromagnetic e...
Microwave heating fundamentally differs from other heating techniques as the consequence of its uniq...
The use of microwaves to perform inorganic synthesis allows the direct transfer of electromagnetic e...
Combustion synthesis of aluminide intermetallics starting from reactive powders mixtures comprising ...
Microwave energy has been applied to ignite the combustion synthesis (CS) in Ni + Al (50: 50 at %) p...
Microwave energy has been exploited to ignite combustion synthesis (CS) reactions of properly design...
The process of Combustion synthesis (CS) is based on the highly exothermic reaction by reactants, wh...
A simplified model of the microwave-assisted combustion synthesis of Ni and Al metal powders to form...
The process of Combustion synthesis (CS) is based on the highly exothermic reaction by reactants,whi...
Microwave (MW) irradiation at 2.45 GHz is a rapid and efficient way to ignite different kind of high...
In this work microwaves (MWs) were used to ignite and sustain, the Combustion Synthesis (CS) of micr...
Combustion synthesis (CS) is a materials manufacturing technique, which gained increased attention b...
The microwave-assisted combustion synthesis of NiAl intermetallics in a single mode applicator has b...
Due to the interesting combination of lightweight and high refractoriness, Al-based intermetallic co...
Aim of this work is to present the results concerning the application of microwave assisted combusti...
The use of microwaves to perform inorganic synthesis allows the direct transfer of electromagnetic e...
Microwave heating fundamentally differs from other heating techniques as the consequence of its uniq...
The use of microwaves to perform inorganic synthesis allows the direct transfer of electromagnetic e...
Combustion synthesis of aluminide intermetallics starting from reactive powders mixtures comprising ...