> Achieving higher scandium concentrations in aluminum nitride films can help increase RF filter performance. Pulsed laser deposition can take the scandium concentration in the film to at least 40%, up from the previous 30% limit
The first thing that came to mind when reading this was RF synthetic aperture performance for jamming-resistant directional antennas in military applications. These seemingly incremental improvements can have huge real world consequences.
Imagine the Starlink antenna but with 10x the performance, or a radar that can withstand 10x the jamming or hide completely because it needs 10% the power. I wonder if that's what's possible here.
These are types of important material properties for the future of compute if we are to use light based computation. E.g. how can one make a medium for light to only propagate one direction.
ak217|1 year ago
> Achieving higher scandium concentrations in aluminum nitride films can help increase RF filter performance. Pulsed laser deposition can take the scandium concentration in the film to at least 40%, up from the previous 30% limit
The first thing that came to mind when reading this was RF synthetic aperture performance for jamming-resistant directional antennas in military applications. These seemingly incremental improvements can have huge real world consequences.
Imagine the Starlink antenna but with 10x the performance, or a radar that can withstand 10x the jamming or hide completely because it needs 10% the power. I wonder if that's what's possible here.
ak217|1 year ago
osnium123|1 year ago
mensetmanusman|1 year ago
These are types of important material properties for the future of compute if we are to use light based computation. E.g. how can one make a medium for light to only propagate one direction.