Agc Glass Europe

Asahi Glass Company, Limited

Benoit Domercq

Philippe Roquiny

Thomas Lambricht

Naoya Wada

Nobuhiro Nakamura

Audrey Dogimont

Daniel Decroupet

Yannick Sartenaer

Jonathan Vivier

Yuki Aoshima

Nao Ishibashi

Ingrid Marenne

Francois Boland

Sebastien Linthout

Marek Novotny

Renaud Hubert

Tanguy Timmermans

Samuel Martinquet

François Boland

Guillaume Lamblin

Christine Dupont

Nunzio Vigneri

Sophie Billet

Sébastien Linthout

A laminated glazing includes (i) a first outer sheet of glass; (ii) an electrically powered functional film; (iii) an infrared reflecting means arranged between the first sheet of glass and the functional film; (iv) at least one first thermoplastic insert arranged between the infrared radiation reflecting means and the functional film; and (v) a second outer sheet of glass. The laminated glazing includes at least the first outer sheet with infrared reflection RIRV so that RIRV&#x2265;1.087*TLV, where TLV is the light transmission of the sheet of glass, and the infrared reflecting means is characterized by light transmission TLC so that TLC&#x2265;1.3*TIRC, where TIRC is the infrared transmission of the infrared radiation reflecting means.

Laminated glazing

The invention relates to a structure comprising at least two impermeable substrates, at least one of these substrates being transparent, at least one intermediate adhesive film and at least one electronic or optoelectronic organic device between the two substrates, said device comprising a stack of organic layers comprising a photoelectroactive layer, with, on either side of the latter, additional organic layers that facilitate the transport of charge, among which layers mention may be made of a hole transport layer and an electron transport layer, said stack being inserted between two carriers, said stack of organic layers essentially containing materials the glass transition temperature (T) of which is such that T&#x2212;T&#x2267;130&#xb0; C., where Tis the glass transition temperature of the material from which the intermediate adhesive film is made.

Laminated electronic or optoelectronic organic device

The invention relates to a transparent substrate for an organic light-emitting device comprising an electrode-bearing carrier, said electrode consisting in a multilayer comprising at least, in order starting from the substrate, a first dielectric layer (D), a first conduction metal layer (M), a second dielectric layer (D), a second conduction metal layer (M), and a third dielectric layer (D), the conduction metal layers (M) in the electrode () being two in number, and the third dielectric layer (D) not comprising an indium-oxide-based layer. It is characterised in that the geometric thickness of the second dielectric layer (D) is at least 65 nm and the geometric thickness of the first conduction metal layer (M) is at least 8.5 nm.

Organic photonic device

The invention relates to a substrate () comprising a medium (), said medium () comprising, on at least one of its main faces, a functional layer () that has low-E or antisolar properties or is electrically conductive, characterized in that said functional layer () comprises, on its extreme surface opposite the medium (), at least one sulphurous compound, in particular a sulphate, a sulphonate and/or a thiosulphate.

Substrate with a functional layer comprising a sulphurous compound

A translucent conductive substrate () for Organic Light Emitting Device comprising, a transparent support (), a scattering layer () formed over the transparent support () and comprising a glass which contains a base material () having a first refractive index for at least one wavelength of light to be transmitted and a plurality of scattering materials () dispersed in the base material () and having a second refractive index different from that of the base material and a transparent electrode () formed over the scattering layer (), said electrode () comprising at least one metal conduction layer () and at least one coating () having properties for improving the light transmission through said electrode, said coating () comprises at least one layer for improving light transmission () and is located between the metal conduction layer () and the scattering layer (), on which said electrode () is deposited.

Translucent conductive substrate for organic light emitting devices

The invention relates to a process for the production of a transparent support covered with a deposit of inorganic nanoparticles, said deposit having micro gaps, comprising the following steps:

Process for the production of a deposit of inorganic nanoparticles having micro gaps onto a light-transparent support

Growing community of inventors

Jumet, Belgium

Benoit Domercq