Abstract: Fatigue fuse mounting systems and methods are discussed in this application. It is advantageous in the field of structural monitoring for fatigue fuses that are engineered to break in sequence to both be mounted near each other and also to work toward ensuring the fatigue fuses all undergo similar load cycling. Simply sticking a set of fatigue fuses to a structure can result in each fatigue fuse from an engineered set undergoing different load cycling, which can reduce their effectiveness. Thus, fatigue fuse mounting systems—and methods of implementing the systems—are contemplated in this application. The system includes a structural frame and a fatigue fuse mounting cartridge. These components work together to ensure that each fatigue fuse in a set undergoes more uniform load cycling, thereby improving structural monitoring performance.

Abstract: Fatigue fuse mounting systems and methods are discussed in this application. It is advantageous in the field of structural monitoring for fatigue fuses that are engineered to break in sequence to both be mounted near each other and also to work toward ensuring the fatigue fuses all undergo similar load cycling. Simply sticking a set of fatigue fuses to a structure can result in each fatigue fuse from an engineered set undergoing different load cycling, which can reduce their effectiveness. Thus, fatigue fuse mounting systems—and methods of implementing the systems—are contemplated in this application. The system includes a structural frame and a fatigue fuse mounting cartridge. These components work together to ensure that each fatigue fuse in a set undergoes more uniform load cycling, thereby improving structural monitoring performance.

Abstract: A method of fabricating a multiferroic antenna element may include providing a electroelastic substrate to transform mechanical oscillations into an acoustic wave, providing a resonator assembly on a surface of the electroelastic substrate where the resonator assembly includes a plurality of magnetoelastic resonators that transform an electromagnetic wave into mechanical oscillations corresponding to a frequency of the electromagnetic wave, and providing an interdigitated electrode assembly at a portion of the electroelastic substrate to convert the acoustic wave into an electrical signal preserving information associated with the frequency of the electromagnetic wave.

Abstract: A method of fabricating a multiferroic antenna element may include providing a electroelastic substrate to transform mechanical oscillations into an acoustic wave, providing a resonator assembly on a surface of the electroelastic substrate where the resonator assembly includes a plurality of magnetoelastic resonators that transform an electromagnetic wave into mechanical oscillations corresponding to a frequency of the electromagnetic wave, and providing an interdigitated electrode assembly at a portion of the electroelastic substrate to convert the acoustic wave into an electrical signal preserving information associated with the frequency of the electromagnetic wave.