Smr Patents Sarl

Max-planck-gesellschaft Zur F&#xf6;rderung Der Wissenschaften E. V.

Leibniz-institut Fuer Festkoerper-und Werkstoffforschung Dresden E.v.

Motherson Innovations Company Limited

Leibniz-institut Für Festkörper-und Werkstoffforschung Dresden E.v.

Murata Manufacturing Co., Ltd.

Helmholtz-zentrum Dresden-rossendorf E.v.

Leibniz-institut Fur Polymerforschung Dresden E.v.

Leibniz-institut Fuer Festkoerper-und Werkstofforschung Dresden E.v.

Leibniz Institute for Solid State and Materials Research Dresden

Leibniz-institut Fuer Festkoerper-und Wrkstoffforschung Dresden E.v

Leibniz-institut Fuer Festkoerpur-und Werkstoffforschung Dresden E.v

Paul Scherrer Institut

Leibniz-institut Für Festkörper- Und Werkstoffforschung E.v.

Garching Innovations Gmbh

Oliver G Schmidt

Bich-Yen Nguyen

Daniel Fritz

Eugen Meier

Andreas Herrmann

Mariam G Sadaka

Volker Erhart

Ilka Rötzer

Daniil Karnaushenko

Arne Schmierer

Simon Belcher

Raimund Negel

Akira Ando

Voon-Yew Thean

Ted R White

Jacob Heath Messenger

Daniel Grimm

Denys Makarov

Romeo Wieczorek

Shoichiro Suzuki

Peter Hein

James Nicholas Dickson

Alexandru Dobrete

Karl Eberl

Andrea König

Andrew Thompson

Dmitriy Karnaushenko

Martin Bauer

Adam Di Fiore

Phillip McKenzie

Marco Cid

Simon David Field

Koichi Banno

Dean Caruso

Sam Thoday

Gary Dekievit

Scott Agung Edwards

Shane Randell Koehne

Alf Liesener

Andrew Brian Little

Stefanie Göttlicher

James Nicholson

Heidemarie Schmidt

Ilona Skorupa

Bill Frank

Colin James Hall

Drew Raymond Evans

Tobias Schwenger

Levente Acs

Kamil Zuber

Reinhold Langbein

David Derry Chamberlain

Mikhail Kudryavtsev

Ivoyl P Koutsaroff

Mathew Chapman-Winter

Manfred Helm

Christopher Moase

Eugene Schmirin

Libo Ma

Yongfeng Mei

Dominic Thurmer

Francesca Cavallo

Detlev Gruetzmacher

Dimitriy Karnaushenko

Lubomir Cergel

Dominik Ernewein

Samuel Sanchez

Veronika Magdanz

Stefan Boettner

Martin Müller

Christine Baumgart

Jürgen Eckert

Fabian Sehn

Torsten Weingärtner

Joachim Schumann

Andreas Winkler

Christoph Deneke

Andreas A Wild

Peter Wennekers

Armando Rastelli

Thomas Dienel

Stefan Harazim

Ilka RÖTZER

Andrea KÖNIG

Philip Mc Kenzie

The disclosure relates to a lighting device of a rear-view device adapted to be used with a vehicle comprising: at least two light sources arranged to emit light beams, wherein the at least two light sources comprise a first light source and a second light source, and the light beams comprise a first beam of light, in particular of a first color, and a second beam of light, in particular of a second color different from the first color; at least two lightguides, wherein the at least two lightguides comprises a first lightguide and a second lightguide; a housing, wherein the housing comprises an upper portion, a lower portion and a supporting element for, in particular detachably, supporting the at least two light sources and/or the at least two light guides; at least one reflective element, wherein the at least one reflective element is arranged to reflect at least a part of the light beams from one of the at least two light sources and is supported by the supporting element; a transparent lens arranged at least partly between the upper portion and the lower portion of the housing; and at least one pattern generating element configured to generate at least one light pattern using at least a part of the light beams from one of the at least two light sources. The disclosure further relates to a rear-view device with at least one such lighting module and a vehicle with at least one such a rear-view device.

Lighting device for rear-view device of vehicle

A method for manufacturing a blinker module for a rearview device of a motor vehicle includes the steps of providing at least one lighting element comprising at least one light guide and at least one light disk or lens and providing of at least one illuminant unit comprising at least one illuminant, wherein the illuminant unit is designed to couple light emitted by the illuminant into the lighting element. A blinker module, rearview device and motor vehicle, including the blinker module manufactured according to the method, are also described.

Method of manufacturing a blinker module as well as a blinker module, rearview device and motor vehicle

Method for producing a blinker module, blinker module, rear-view device, and motor vehicle

A lighting device of a rear view device of a motor vehicle, includes at least one light source with at least one light emitter for emitting light which can be coupled into and out of a light guide with at least one light funnel in order to pass at least through part of a light transmission unit and illuminate an area adjacent to the motor vehicle, where each light funnel extends upward or downward from its light input end to its light output end, and each light emitter is associated with a light funnel determining an optical axis.

Lighting device, rear-view device and motor vehicle

The invention concerns the field of microelectronics and relates to a three-dimensional component which, for example as a sensor, measures the direction of a property in a vector field. The object of the present solution is to specify a three-dimensional component that is capable of measuring and/or generating vector fields in multiple directions and/or simultaneously with low space requirements. The object is attained with a three-dimensional component for the uni-, bi-, tri- or multi-directional measurement and/or generation of vector fields, in which component at least one element made of material systems in present on a three-dimensional carrier made of at least one carrier material, which element measures and/or generates at least one vector field in at least one direction in the spatial position of the element on, against and/or in the carrier.

Method for producing at least one three-dimensional component for the uni-, bi-, tri- or multi-directional measurement and/or generation of vector fields and three-dimensional component for the uni-, bi-, tri- or multi-directional measurement and/or generation of vector fields

Three-dimensional micro devices usable as electromagnetic and magnetomechanical energy converters, as micromagnetic motors or generators, and methods for their production. The three-dimensional micro devices exhibit high efficiency even at dimensions on the microscale and below, and the method for production, as well as mass production, is simple and economical. Moreover, the three-dimensional micro devices at least include one three-dimensional device produced using roll-up technology. This three-dimensional device includes all functional and structural components for full functionality. At least one functional or structural component is an element that is at least partially freely movable at least partially within a surrounding element and is arranged such that it can be rotated at least around one of its axes.

Three-dimensional micro devices and method for their production

Rolled-up energy storage elements, each including a rolled layer stack of layers which are arranged within a layer plane in an at least partially covering manner. In the layer stack, at least two layers are present which are at least partially electrically conductive, and at least one layer of a non-liquid electrolyte material is present, or at least one region between at least two layers of the rolled layer stack is present which comprises a liquid electrolyte. Either at least one of the layers that is at least partially electrically conductive includes at least partially a magnetic material, or an additional layer that includes at least partially a magnetic material in the layer stack.

Rolled-up energy storage elements and method for the production thereof

The invention relates to a lamp () for a rear view device of a motor vehicle (), with at least one light source () for emitting light beams, a collection optics () for collimating the light beams and a scattering optic () downstream of the collection optics () in the beam path of the light beams, which has a first main direction of beam (), which, in the installation position of the lamp () in a left-hand drive motor vehicle (), is directed towards an eye ellipse () of a driver of the motor vehicle (), and has a second main direction of beam () which, in the installation position of the lamp () in a right-hand drive motor vehicle (), is directed towards an eye ellipse () of a driver of the motor vehicle (). Furthermore, the invention relates to a rear view device with at least one lamp according to the invention and a motor vehicle with at least one lamp according to the invention or at least one rear view device according to the invention.

Luminaire, rear view device, and motor vehicle having luminaire

Method for producing mobility in immobile cells in in vivo or in vitro fertilization. The method includes producing mobility in individual immobile cells that are connected to a microstructure. The microstructure is composed at least partially of magnetic materials and a non-reciprocal movement of the microstructure with the immobile cell is executed by a time-varying, three-dimensional external magnetic field.

Method for mobilizing immobilized cells

A multifunction lamp unit for a vehicle includes a housing, at least one light pipe together with at least one light source disposed at least partially within the housing, and a clear lens substantially enclosing the housing, the at least one light pipe and the at least one light source, the lens having an inner surface, an outer surface disposed opposite the inner surface and at least one of a continuous transparent and translucent coating on the outer surface.

Light efficiency methods for vehicular HTL systems

A lighting device for a visual display in a rearview device of a vehicle includes at least one light element, at least one reflecting element which is included on or in a support element of the lighting device and is adapted to reflect incident light from the light element, at least one absorption element which is included on or in the support element of the lighting device and is adapted to absorb incident light from the light element, and at least one light guide element which is included on or in the support element of the lighting device and is adapted to collect and guide incident light from the light element, where the support element, the reflecting element, the absorption element or the light guide element are at least partially curved away from the light element.

Lighting device and rearview device for vehicles

An exterior rearview system for an autonomous vehicle includes a housing adapted for mounting to an exterior side of a vehicle, the housing holding at least one of a reflective element or display screen for displaying to a driver a rear or side image of the vehicle, one or more lighting modules disposed in the housing and providing an adaptive lighting sector which is adaptively controlled, and a control system configured to receive input data related to at least one of a user's intention using a tracking sensor and a user's retaking control of the autonomous vehicle.

Exterior rearview device with illumination functions and autonomous vehicles using same

An illumination device includes at least one illuminant for emitting light, and an optical reflection unit, including at least one reflective surface, and at least one surface including at least one mask, where the optical reflection unit is configured to receive the light emitted from the at least one illuminant and project at least one of an image, a symbol, a logo, and a legend on a projection surface.

Illumination apparatus, vehicle component and vehicle

A lighting device installed in a vehicle for optimized light distribution includes a substrate having quantum dots which are adapted to emit light, a reflecting layer which may be arranged on the bottom side of the substrate, and a transparent layer which may be arranged on the top side of the substrate.

Lighting device for optimized light distribution

A roll-up type capacitor includes a cylindrical part, a first external electrode, and a second external electrode. The cylindrical part is a rolled-up laminate in which a lower electrode layer, a dielectric layer and an upper electrode layer are laminated in this order. The first external electrode is electrically connected to the upper electrode layer, and the second external electrode is electrically connected to the lower electrode layer, and the first external electrode and the second external electrode are respectively located on opposed sides of the cylindrical part such that they face to each other.

Capacitor and process for producing thereof

Growing community of inventors

Dresden, Germany

Oliver G Schmidt