Abstract: A composite film may include a first transparent substrate and a first anti-reflective coating overlying a first surface of the first transparent substrate. The first anti-reflective coating may include a first UV curable acrylate binder, a photo initiator component, and silica nanoparticles dispersed within the first anti-reflective coating. The first anti-reflective coating may further include a ratio AC1SiO2/AC1B of at least about 0.01 and not greater than about 1.3. The composite film may further have a VLT of at least about 93.0% and a haze value of not greater than about 3%.

Abstract: A composite film may include a first transparent substrate and a first anti-reflective coating overlying a first surface of the first transparent substrate. The first anti-reflective coating may include a first UV curable acrylate binder, a photo initiator component, and silica nanoparticles dispersed within the first anti-reflective coating. The first anti-reflective coating may further include a ratio AC1SiO2/AC1B of at least about 0.01 and not greater than about 1.3. The composite film may further have a VLT of at least about 93.0% and a haze value of not greater than about 3%.

Abstract: A composite film may include a first transparent substrate and a first anti-reflective coating overlying a first surface of the first transparent substrate. The first anti-reflective coating may include a first UV curable acrylate binder, a photo initiator component, and silica nanoparticles dispersed within the first anti-reflective coating. The first anti-reflective coating may further include a ratio AC1SiO2/AC1B of at least about 0.01 and not greater than about 1.3. The composite film may further have a VLT of at least about 93.0% and a haze value of not greater than about 3%.

Abstract: The present disclosure is directed to optically transparent and IR reflecting films having a metal oxide based composite layer which can synergistically improve the optical properties, solar properties, and production speed of the whole composite.

Abstract: Embodiments of the present disclosure are directed to thin conductive composites, such as biosensor electrodes, containing a polymeric film substrate a conductive layer disposed adjacent the substrate. The conductive layer includes Krypton and a conductive material. The conductive layer has an average thickness of no greater than about 150 nanometers. The conductive layer has a normalized thickness (t/?) of no greater than about 3.0. Further, the composite has a sheet resistance of no greater than about 97.077t?1.071 ohm/sq, where t represents the thickness of the conductive layer in nanometers.

Abstract: A solar control composite has improved seasonal selectivity, allowing a greater amount of heat to be transmitted through the composite during the winter and a lower amount of heat transmitted through the composite during the summer.

Abstract: A composite film may include a first transparent substrate and a first anti-reflective coating overlying a first surface of the first transparent substrate. The first anti-reflective coating may include a first UV curable acrylate binder, a photo initiator component, and silica nanoparticles dispersed within the first anti-reflective coating. The first anti-reflective coating may further include a ratio AC1SiO2/AC1B of at least about 0.01 and not greater than about 1.3. The composite film may further have a VLT of at least about 93.0% and a haze value of not greater than about 3%.

Abstract: The present disclosure is directed to optically transparent and IR reflecting films having a metal oxide based composite layer which can synergistically improve the optical properties, solar properties, and production speed of the whole composite.

Abstract: A solar control composite has improved seasonal selectivity, allowing a greater amount of heat to be transmitted through the composite during the winter and a lower amount of heat transmitted through the composite during the summer.

Abstract: The present disclosure is directed to optically transparent and IR reflecting films having a metal oxide based composite layer which can synergistically improve the optical properties, solar properties, and production speed of the whole composite.

Abstract: A solar control film can include a multilayer stack including a transparent metal layer and a dark metal layer separated by an interference layer. The solar control film can have an improved solar control factor.

Abstract: Embodiments of the present disclosure are directed to thin conductive composites, such as biosensor electrodes, containing a polymeric film substrate a conductive layer disposed adjacent the substrate. The conductive layer includes Krypton and a conductive material. The conductive layer has an average thickness of no greater than about 150 nanometers. The conductive layer has a normalized thickness (t/?) of no greater than about 3.0. Further, the composite has a sheet resistance of no greater than about 97.077t?1.071 ohm/sq, where t represents the thickness of the conductive layer in nanometers.

Abstract: The present invention relates to a method for producing an electrode for OLEDs, comprising the following successive steps: (a) depositing, on a transparent substrate, a metal film composed of silver or of an alloy of silver having a thickness in the range between 35 and 70 nm, preferably between 45 and 65 nm; (b) heating the substrate covered with the metal film to a temperature in the range between 200° C. and 400° C., for a period of at least 5 minutes, preferably in the range between 20 and 60 minutes, so as to obtain the dewetting of the metal film and the formation of a random metal grid on the transparent substrate; (c) covering the transparent substrate and the random metal grid with a continuous layer of a transparent conductive material.

Abstract: An OLED device includes a transparent anode, of sheet resistance R1, and a cathode, of sheet resistance R2, the ratio r=R2/R1 ranging from 0.01 to 2.5, a first anode electrical contact, a first cathode electrical contact, arranged above the active zone, and a reflector covering the active zone above an OLED system, and for each point B of the anode contact, the point B being in an edge of the first anodic region, on defining a distance D between B and the point C closest to the point B, and on defining a distance L between the point B and a point X of an opposite edge of the first anodic region from the first edge, and passing through Ci the following criteria are defined: if 0.01?r<0.1, then 30%<D/L<48%, if 0.1?r<0.5, then 10%<D/L<45%, if 0.5?r<1, then 10%<D/L<45%, if 1?r<1.5, then 5%<D/L<35%, if 1.5?r<2.5, then 5%<D/L<30%.

Abstract: An OLED device includes an anode, which is transparent, anode of a sheet resistance R1, a cathode of sheet resistance R2, the ratio r=R2/R1 ranging from 0.1 to 5, a first anode contact and a second anode contact, spaced from and facing the first anode contact, and a first cathode electrical contact, which is: arranged above the active zone, offset from the first anode contact and from the second anode contact, at every point of the contact surface.

Abstract: This layered element, in particular for a photovoltaic device, includes a polymer layer, a moisture-sensitive layer, and a protective coating forming a moisture barrier inserted between the polymer layer and the moisture-sensitive layer. The protective coating includes an antireflection multilayer comprising at least two thin layers differing in refractive index from each other.

Abstract: A transparent composite can include a textured substrate and a solar control layer. Portions of the solar control layer may lie at different elevations that are separated by a sidewall of the textured substrate. The portions may be electrically disconnected from each other or include other portions that are highly resistive. In an embodiment, the solar control layer can be non-conformally deposited over the textured substrate. The solar control layer can be formed such that there are no lateral gaps between portions of the solar control layer. In a particular embodiment, the transparent composite can have good transmission of visible light and high frequency signals while still achieving suitably low transmission of near infrared radiation.

Abstract: An OLED device includes a transparent anode of given sheet resistance R1, a cathode of given sheet resistance R2, the ratio r=R2/R1 ranging from 0.1 to 5, a first anode electrical contact and a first cathode electrical contact which is offset from the anode electrical contact, for any point B1 of each anode contact, on defining a distance D1 between the point B1 and a point C1 of the contact surface which is closest to the point B1, and on defining a distance L1 between the point B1 and a point X1 of a second edge of the active zone opposite from the first edge, passing through C1, then the following criteria are defined: if 0.1?r<1.75, then 20%<D1/L1, if 1.75?r<2.5, then 20%<D1/L1<90%, or if 2.5?r<3, then 20%<D1/L1<80%, or else if 3?r?5 then 20%<D1/L1<70%, and a reflector (6) covers the active zone (20).

Abstract: The present disclosure is directed to optically transparent and IR reflecting films having a metal oxide based composite layer which can synergistically improve the optical properties, solar properties, and production speed of the whole composite.

Abstract: An organic light-emitting diode device includes a carrier including a transparent layered element exhibiting specular transmission and diffuse reflection, the element being used as an extraction solution. A process for manufacturing the device and the use of the carrier in an organic light-emitting diode device are presented. Lastly, there is provided a carrier coated with an electrode suitable in particular for preparing the diode devices.