Infrared photovoltaic glue board is customized on demand

Can infrared light cure adhesives?

Engineers and curing system designers have long considered spot curing using infrared (IR) light as the Holy Grail for bonding with engineering-grade adhesives. The ability to dispense a wet adhesive, position parts and cure on-demand has been seen as the main advantage of radiation curing adhesives.

Is bio-inspired adhesive & cooling hydrogel useful for PV panels?

Meanwhile the strict durability tests should be done in future. We believe that this bio-inspired adhesive and cooling hydrogel is useful for the performance of PV panels because it not only contributes to the tunable cooling ability of a PV panel, but it also has a cost advantage owing to its “plug-and-play” feature and its reusability.

Are photovoltaic devices effective across the visible?

However, these devices remain limited by their capture of visible energy; more than a half of the sun’s power lies in the infrared. Herein the authors demonstrate photovoltaic devices effective across the visible and all the way out to 1700 nm .

Are thermal cure adhesives better than polyacrylate adhesives?

Thermal cure adhesives generally tend to be formulated with epoxy chemistry and consequently can achieve tack-free surfaces and much greater Tg (glass transition temperature) than polyacrylate adhesives cured UV adhesives. Designing a curing system that can be successfully deployed in a wide range of industries is no easy task.

How effective are solution-processed photovoltaic devices?

Solution-processed thin-film organic, inorganic, and hybrid photovoltaic devices have achieved power conversion efficiencies as high as 5%. However, these devices remain limited by their capture of visible energy; more than a half of the sun’s power lies in the infrared.

How efficient are solution-processed infrared photovoltaic cells?

Edward H. Sargent; Efficient solution-processed infrared photovoltaic cells: Planarized all-inorganic bulk heterojunction devices via inter-quantum-dot bridging during growth from solution. Solution-processed thin-film organic, inorganic, and hybrid photovoltaic devices have achieved power conversion efficiencies as high as 5%.