Siemens Aktiengesellschaft

Osram Opto Semiconductors Gmbh

Osram Gmbh

Osram Oled Gmbh

Osram Ag

Siemens Healthcare Gmbh

Universitat Basel

Universitat De Valéncia

David Hartmann

Wiebke Sarfert

Guenter Schmid

Günter Schmid

Frank Vollkommer

Sabine Szyszkowski

Andreas Kanitz

Anna Maltenberger

Oliver Schmidt

Sandro Francesco Tedde

Jan Hauke Wemken

Erwin Lang

Marc Philippens

Mohammad Khaja Nazeeruddin

Luisa De Cola

Patric Buechele

Ralf D Krause

Arvid Hunze

Ralph Paetzold

Dan Taroata

Philipp Schwamb

Florian Eder

Jürgen Bauer

Etienne Baranoff

Ana-Maria Krestel

Ralph Pätzold

Riikka Suhonen

David Vonlanthen

Wiebke Sarfert-Gast

Claudia Bizzarri

Hendrik Jan Bolink

Sebastian Meier

Nail Malikovich Shavaleev

Edwin Constable

Daniel Tordera Salvador

Antonio Pertegas Ojeda

Enrique Orti

Patric BÜCHELE

Sabine Herder

Manuel Delgado

Cheng-Han Yang

A coated scintillator particle, a scintillator particle coated with a semiconducting photoactive material, a method for producing such scintillator particles, an x-ray detector, a gamma-ray detector, and a UV detector using such coated scintillator particles, a method for producing such x-ray detector, gamma-ray detector, or UV detector, and the use of the coated scintillator particles for detecting high-energy radiation, e.g., radiation, gamma radiation and/or x-rays, are disclosed.

Scintillators comprising an organic photodetection shell

A detector for high-energy radiation, e.g., for x-radiation and/or UV radiation, may include (a) a substrate having a first electrical contact, (b) optionally a first intermediate layer, (c) a layer including an organic matrix of a photoactive material and insoluble scintillator particles distributed substantially homogeneously in the organic matrix, (d) optionally a second intermediate layer, and (e) a second electrical contact, wherein the mixture ratio between the scintillator particles and the organic matrix in layer (c) is selected in such a way that the intermediate space filled with the organic matrix has a distance between two scintillator particles that corresponds to at most five times the depth of penetration of the emitted radiation of the scintillator particles. A method for producing a corresponding detector is also disclosed.

Hybrid-organic X-ray detector with conductive channels

Various embodiments may relate to an electronic structure, including at least one organic layer, at least one metal growth layer grown onto the organic layer, and at least one metal layer grown on the metal growth layer. The at least one metal growth layer contains germanium. Various embodiments further relate to a method for producing the electronic structure.

Electronic structure having at least one metal growth layer and method for producing an electronic structure

The invention relates to a use of the guanidinium cation and to a light-emitting component. This invention for the first time describes matrix materials and emitters for uses in organic electrochemical light-emitting cells containing a guanidinium cation unit. Guanidinium groups as a cationic system promise a wide electrochemical window and hence stable components. The route to guanidinium systems is described in detail in the literature.

Use of the guanidinium cation and light-emitting component

The invention relates to novel metal-organic materials for hole injection layers in organic electronic components. For example, in light-emitting components such as organic light diodes (OLED) or organic light-emitting electrochemical cells (OLEEC) or organic field effect transistors or organic solar cells or organic photo detectors. Luminescence (cd/m), efficiency (cd/A), and service life (h) of organic electronic components such as from organic light diodes in particular are highly dependent on the exciton thickness in the light-emitting layer and on the quality of the charge carrier injection and are also limited by same, among other things. The invention relates to a hole injection layer consisting of quadratic planar mononuclear transition metal complexes such as copper 2+ complexes, for example, which are embedded into a hole-conducting matrix.

Dopant for a hole conductor layer for organic semiconductor components, and use thereof

This invention presents, firstly, the principle that simple and known emitter materials which are uncharged per se, as known, for example, from OLED technology, can be converted to a charged species by the introduction of a charged imidazolinium radical. This charged species can then be used in organic light-emitting electrochemical cells.

Phosphorescent metal complex, process for production and light-emitting component

A phosphorescent metal complex compound, a method for the preparation thereof and a radiation component, in particular an organic light emitting electrochemical cell (OLEEC) use a bidentate ligand containing a triazole unit. Some of the blue emitters shown here for the first time, in particular the class of iridium complex compounds presented here, are the bluest emitters that have ever existed.

Phosphorescent metal complex compound, method for the preparation thereof and radiating component

The invention relates to an OLEEC component and to a production process therefor. This component has an active layer including a novel emitter complex. This complex is formed by the coordination of low molecular weight semiconductors around a central cation. The complexation allows wet-chemical processing of low molecular weight semiconductors. This also allows formation of emitter complexes from effective hole or electron transport materials.

Complexation of low-molecular semiconductors for the application as an emitter complex in organic light-emitting electrochemical cells (OLEECs)

Optoelectronic organic component, comprising: a first electrode, a first planarization layer which is disposed on the first electrode, a first injection layer which is disposed on the planarization layer, an organic functional layer which is disposed on the injection layer, a second electrode which is disposed on the organic functional layer, wherein in the case that the first electrode is an anode, the following applies for the energy levels: E&#x2212;E&#x2266;&#x2212;Eand EF&#x2212;Eor in the case that the first electrode is a cathode, the following applies for the energy levels: E&#x2212;E&#x2266;E&#x2212;EF and E&#x2212;EF&#x3c;E&#x2212;E, wherein Eis the fermi energy, Eis the energy of the highest occupied energy level of the respective layer and Eis the energy of the lowest unoccupied energy level of the respective layer.

Optoelectronic organic component and method for the production thereof

A material for a hole transport layer has a p-dopant. The dopant forms with the hole transport material a charge transfer complex. A metal component in solution is processed with the hole transport matrix material in solution to form the hole transport layer.

Material for a hole transport layer with p-dopant

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Erlangen, Germany

David Hartmann