Translation of "Electroluminescent display" in German

This three-dimensional electroluminescent display is also called hereinafter for short.

An organic electroluminescent display device as claimed in claim 8, wherein the interference filter is a metal-dielectric interference filter.

In the production of large-area, electroluminescent display elements, at least one of the electrodes 2 or 8 that supply electric power must consist of a transparent and conductive material.

For example, an electroluminescent display may thus be composed of a central region with individual pixels disposed in lines and columns and surrounded by a row of symbols.

An organic electroluminescent display device as claimed in claim 1, wherein the electroluminescent member comprises a conjugated ladder polymer of the poly(paraphenylene)-type (LPPP).

An organic electroluminescent display device as claimed in claim 1, wherein the cut-off filter contains a yellow dye or a yellow coloring pigment.

An organic electroluminescent display device as claimed in claim 4, wherein the yellow dye is selected from the group consisting of yellow dyes with the C.I. Index Solvent Yellow 25, Solvent Yellow 83:1, Solvent Yellow 93, Solvent Yellow 98, Solvent Yellow 114, Solvent Yellow 133, Solvent Yellow 163 and Solvent Yellow 179.

An organic electroluminescent display device as claimed in claim 1, wherein the optical filter member additionally comprises a polarization filter.

Furthermore, use is being made of the technologies PDP (plasma display panel), PALC (plasma addressed liquid crystal), ELD (electroluminescent display), FED (field emission display) etc., which are also explained in the above-cited SID report.

Furthermore, use is being made of the technologies PDP (plasma display panel), PALC (plasma addressed liquid crystal), ELD (electroluminescent display), FED (field emission display), which are also explained in the above-cited SID report.

In the production of large-area electroluminescent display elements, at least one of the current-carrying electrodes 2 or 8 must consist of a transparent and conductive material.

An organic electroluminescent display device as claimed in claim 1, wherein the optical filter member additionally comprises an interference filter.

These products that cover a vast range are applied to almost all fields, including Food packaging, optics, electronics, watches, clocks, plastic, chemical industry, automobile, food, metallurgy, paper making, ceramics, glass, train, ship, doors, windows, curtain film, anti-static and electromagnetic film, decorative film, packaging film, solar greenhouse film, electric heater film, anti-frost and fog transparent film, LCD display and electroluminescent display with transparent electrode film.

The present invention relates to a three-dimensional electroluminescent display having a transparent front part and having an electroluminescent apparatus arranged behind said front part.

An organic electroluminescent display device as claimed in claim 1, characterized in that the layer thickness of the protective layer d?5 ?m.

In order to demonstrate the next possible stage of development for self-illuminating smart labels, a printed electroluminescent display was constructed and made to light up with a fully printed circuit.

The dispersion was therefore used without filtration to produce electroluminescent displays.

The filtered dispersion was used for producing electroluminescent displays.

Manufacturers utilise ALD in photovoltaics, LED lights and flat electroluminescent displays.

Preferably, the radiation-emitting device is used for monochrome or multicolored electroluminescent displays.

These displays are preferably embodied as monochrome or multicolored electroluminescent displays.

Metals, 92, 107-113 (1998)) in electroluminescent matrix displays.

In contrast to liquid-crystal displays, electroluminescent displays are self-illuminating and therefore do not require an additional illumination source at the back.

In contrast to liquid crystal displays, electroluminescent displays are self-illuminating and therefore do not require an additional back-lighting source.

In contrast to liquid crystal displays, electroluminescence displays are self-illuminating and therefore require no additional back-illumination source.

The present invention describes novel metal complexes, the use thereof in electroluminescent elements, and displays based thereon.

Moreover, in contrast to the liquid-crystal displays, the electroluminescent displays are self-illuminating and therefore require no backlighting source.

In contrast to liquid-crystal displays, electroluminescent displays are self-illuminating and therefore do not require any additional back-lighting source.

Furthermore, hermetic packaging is provided, through the use of which the organic electroluminescent displays are protected against environmental influences, such as moisture and mechanical stresses.

By this means, the light flux of the electroluminescent displays can be increased considerably compared with assemblies not having intermediate, organic polymer layers.

It has now surprisingly been found that the life of electroluminescent displays to be increased considerably by using a solution or dispersion of polymeric organic conductors having a very small particle size and, if conductive polymers of the formula (I) are used, a specific ratio of the conductive polycations to nonconductive counterions or nonionic binders.

This method allows the production of structured electrodes, such as metal electrodes, in particular for organic electroluminescent displays, without there being any risk of damage to the organic functional layers, as is the case with known processes.

The polymers are used, for example, as electrodes, sensors, for producing capacitors or electroluminescent displays and other electro-optic components, for producing photovoltaic devices, as electrochromic layers, as auxiliaries for the production of metal coatings, as thin films for dissipating static charges, in gel electrolytes or in ion-exchange membranes.