Reactive interlayers consisting of zero valent iron and copper nanoparticles have been successfully incorporated into Surlyn films to fabricate moisture barrier materials with reduced water vapor permeabilities. The reactive nanoparticles dispersed in stearic acid were employed as the interlayers due to their ability to react with moisture. The water vapor transmission rates through the fabricated barrier films with reactive iron and copper interlayers decreased by over 4 orders of magnitude when compared to neat Surlyn. The flexibility and transparency of the barrier films have been evaluated by tensile and UV-visible experiments. Moreover, the accelerated aging studies conducted in accordance with the ISOS-III protocol confirmed the incre...
In order to address the issue of lateral water and oxygen permeation through the sides of the encaps...
Hydrophobic layers are generated and chemisorbed onto standard coating materials for photovoltaic (P...
The need of enhancing the protection of photovoltaic (PV) devices from the atmospheric degradation a...
Reactive interlayers consisting of zero valent iron and copper nanoparticles have been successfully ...
Development of barrier materials for organic device encapsulation is of key interest for the commerc...
Barrier materials are required for encapsulating organic devices. A simple methodology based on orga...
A layer-by-layer approach was used for the fabrication of multilayer films for ultra high gas barrie...
Based on results of preceding research and development, thin gas barriers were made by wet applicati...
A reactive polymer nanocomposite system was proposed as an effective water vapor barrier material fo...
Flexible Thin-film photovoltaic (TFPV) is a low cost alternative to incumbent c-Si PV products as it...
Organic electronic devices like organic solar cells and organic light-emitting diodes quickly degrad...
The advancement in smart technologies for organic conducting polymers as flexible substrates in LEDs...
Effective barrier/encapsulation systems represent key enabling technologies for large-area electroni...
In order to address the issue of lateral water and oxygen permeation through the sides of the encaps...
Hydrophobic layers are generated and chemisorbed onto standard coating materials for photovoltaic (P...
The need of enhancing the protection of photovoltaic (PV) devices from the atmospheric degradation a...
Reactive interlayers consisting of zero valent iron and copper nanoparticles have been successfully ...
Development of barrier materials for organic device encapsulation is of key interest for the commerc...
Barrier materials are required for encapsulating organic devices. A simple methodology based on orga...
A layer-by-layer approach was used for the fabrication of multilayer films for ultra high gas barrie...
Based on results of preceding research and development, thin gas barriers were made by wet applicati...
A reactive polymer nanocomposite system was proposed as an effective water vapor barrier material fo...
Flexible Thin-film photovoltaic (TFPV) is a low cost alternative to incumbent c-Si PV products as it...
Organic electronic devices like organic solar cells and organic light-emitting diodes quickly degrad...
The advancement in smart technologies for organic conducting polymers as flexible substrates in LEDs...
Effective barrier/encapsulation systems represent key enabling technologies for large-area electroni...
In order to address the issue of lateral water and oxygen permeation through the sides of the encaps...
Hydrophobic layers are generated and chemisorbed onto standard coating materials for photovoltaic (P...
The need of enhancing the protection of photovoltaic (PV) devices from the atmospheric degradation a...