Koninklijke Philips Corporation N.v.

Nederlandse Organisatie Voor Toegepast-natuurwetenschappelijk Onderzoek Tno

Oledworks Gmbh

Taiwan Semiconductor Manufacturing Comp. Ltd.

U.S. Philips Corporation

Koninklijkle Philips N.v.

Koninklike Philips N.v.

Huntsman Advanced Materials (switzerland) Gmbh

Beijing Xiaomi Mobile Software Co., Ltd.

Koninklijke Philips Electronics N.v.

Philips Intellectual Property & Standards Gmbh

Herbert Lifka

Edward Willem Albert Young

Cristina Tanase

Mark Thomas Johnson

Coen Adrianus Verschuren

Antonius Maria Bernardus Van Mol

Peter Van De Weijer

Sören Hartmann

Yulia Galagan

Henri Fledderus

Erik Dekempeneer

Herbert Friedrich Boerner

Freddy Roozeboom

Holger Schwab

Manfred Stephan Ruske

Nigel David Young

Cornelis Petrus Hendriks

Paulus Cornelis Duineveld

Daan Anton Van Den Ende

Jeroen Van Den Brand

Reinder Coehoorn

Nijs Cornelis Van Der Vaart

Horst Greiner

Eliav Itzhak Haskal

Jens Meyer

Mihaela Ioana Popovici

Stefan Peter Grabowski

Joanne Sarah Wilson

Cornelis Adrianus Henricus Antonius Mutsaers

Helga Hummel

Christoph Rickers

Ike Gerke De Vries

Margreet De Kok

Wouter Dekkers

Chia-Chen Fan

Siegfried Christiaan Veenstra

Rene Johan Gerrit Elfrink

Francesco Di Giacomo

Rainald Manfred Gierth

Hieronymus Antonius Josephus Maria Andriessen

Rifat Ata Mustafa Hikmet

Cornelis Reinder Ronda

Herfried Karl Wieczorek

Mark Johnathan Childs

Markus Heinrich Klein

David Andrew Fish

Peter G Steeneken

Marcus Antonius Verschuuren

Dirk Hente

Dagobert Michel De Leeuw

Franciscus Johannes Gerardus Hakkens

Willem Franke Pasveer

Coen Theodorus Hubertus Fransiscus Liedenbaum

Joseph Hendrik Anna Maria Jacobs

Cornelis Maria Hart

Andrea Giraldo

Wolfgang Otto Budde

Eduard Gerard Marie Pelssers

Roland Alexander Van De Molengraaf

Paulus Albertus Van Hal

Anja Van De Stolpe

Andreas Heinrich Dietzel

Matthias Simon

Valentina Lavezzo

Denny Mathew

Margaretha Maria De Kok

Wouter Oepts

Volker Van Elsbergen

Sandeep Unnikrishnan

Marc Wilhelmus Gijsbert Ponjee

Robertus D Verhaar

Johan Bosman

Renatus Hendricus Maria Sanders

Paulus A Van Der Plas

Dimiter Lubomirov Kotzev

Gerjan Franciscus Arthur Van De Walle

Jeroen Henri Antoine Maria Van Buul

Joanna Maria Elisabeth Baken

Bente Adriaan Bordes

Celine Juliette Detcheverry

Volker Lambert Van Elsbergen

Dong Zhang

Petrus Alexander Rensing

Fred Roozeboom

Bernhard Sailer

Emilie Galand

Richard Frantz

Mohammed Zoubair Cherkaoui

Hieronymus Ajm Andriessen

Fredrik Vanhelmont

Frederik Vanhelmont

Siebe Laurentius Maria Van Mensfoort

Gerardus Henricus Riet Jens

Erik Albertus Hendrikus Monica Stroex

Mark Bakker

Sietze Jongman

Oscar Johannes Antoinetta Buijk

Lucien Maria Johan Van Der Schaft

Adrianus Petrus Langen

A partially translucent photovoltaic window is provided herein that comprises a photovoltaic module enclosed between a first window pane and a second window pane. The photovoltaic module comprises a stack with at least a first electrode layer, a second electrode layer and a perovskite photovoltaic layer sandwiched between the electrode layers. The photovoltaic window further comprises between the first window pane and the photovoltaic module as well as between the second window pane and the photovoltaic module a respective intermediate layer comprising a lead getter material.

Partially translucent photovoltaic window and method of manufacturing the same

A photovoltaic device () with a plurality of photovoltaic modules (A, IB, . . . , IF), is disclosed herein comprising a stack with a primary electrode layer (), a secondary electrode layer () and a photovoltaic layer () arranged between said primary and said secondary electrode layer, at least one of the electrode layers being translucent, the photovoltaic layer () at least comprising a first sublayer of a photovoltaic material and a second, charge carrier transport sublayer between said first sublayer and said secondary electrode layer. An serial electrical interconnection between mutually subsequent photovoltaic modules (IB,C) is provided by a coupling element of insulating material laterally enclosing an electrically conducting core (BC) provided in the interface section between the mutually subsequent photovoltaic modules. Therewith a lifetime of the photovoltaic material is improved.

Photovoltaic device and method of manufacturing the same

Translucent photovoltaic product, method of manufacturing the same and manufacturing apparatus. The method comprises: depositing a stack of layers on a carrier substrate, the stack comprising a first electrode layer, a photovoltaic layer and a second electrode layer; cutting through the substrate with the stack of layers to form a first and a second mutually disjoint sections; separating the first and the second section from each other; laminating the first section and the second section with a respective further substrate at a side opposite the carrier substrate to form a respective first and second photovoltaic device; and assembling the photovoltaic product from the first photovoltaic device and the second photovoltaic device, wherein the first and the second sections are mutually complementary comb shaped structures and wherein the second photovoltaic device is arranged in a second plane parallel to and in front of a first plane of said first photovoltaic device.

Translucent photovoltaic device, translucent photovoltaic product and method of manufacturing the same

A photovoltaic device () is provided with a first electrode layer (), a photovoltaic layer (), a second charge carrier transport layer () and a second electrode layer (). The photovoltaic device () has a plurality of mutually subsequent photovoltaic device cells (A, . . . ,F) arranged in a first direction (D). Each pair of a photovoltaic cell (C) and its successor are serially connected in an interface region (CD). The interface region comprises an elongate region (R) between successive first electrode layer portion (C,D), a first elongate region (R) between successive photovoltaic layer portions (A,B), a second elongate region (R) between successive second charge carrier transport layer portions (C,D) and a third elongate region (R) between successive second electrode layer () portions (C,D). The second elongate region (R) extends within the first elongate region (R), and its lateral boundaries are distinct from those of the first elongate region (R).

A photovoltaic device () is provided that comprises serially arranged photovoltaic device cells (A,B). Each cell having a transparent electrode layer region electrical conductors (A, . . . ,A) forming an electric contact with the transparent electrode layer region, a photo-voltaic stack portion (A,B) that extends over the transparent electrode region (A,B) and over an insulated portion of the electrical conductors, a further electrode region (A,B) that extends over the photovoltaic stack portion (A,B). A further electrode region (A) of a photovoltaic device cell (A) extends over electric contacts formed by exposed ends (B) of the electrical conductors of a subsequent photovoltaic device cell (B).

A photovoltaic device () is provided with plurality of mutually subsequent photovoltaic device cells (A, . . . ,F) arranged along a direction of first device axis (D). Each pair of a photovoltaic device cell and its successor are serially arranged through an interface region (CD), further having a bypass function, and which extends along a second axis (D), transverse to the first axis.

A flow control device comprises a laminate structure of an electroactive material layer and a non-actuatable layer. An array of orifices is formed in one of the layers wherein the orifices are open in one of the rest state and actuated state and the orifices are closed in the other of the rest state and actuated state. Actuation of the electroactive material layer causes orifices to open and close so that flow control function may be implemented.

Flow control device

The present disclosure pertains to a photovoltaic product (), comprising a foil with a photovoltaic layer stack () and an electrically conductive layer stack () that supports the photovoltaic layer stack and that in an operational state provides for a transport of electric energy generated by the photovoltaic layer stack to an external load. The electrically conductive layer stack () comprises a first and a second electrically conductive layer () and an electrically insulating layer () arranged between the first and the second electrically conductive layer, wherein the photovoltaic layer stack () has first electrical contacts (PI, P) of a first polarity that are electrically connected to the first electrically conductive background domain () and has second electrical contacts (N, N) of a second polarity opposite to said first polarity that are electrically connected to the first contact areas (), and wherein the second electrically conductive background domain () and one or more of the second contact areas () serve as electric contacts for the output clamps.

Photovoltaic product and method of manufacturing the same

An actuator device comprises an EAP structure which deforms in response to a drive signal applied to the device, a device output being derived from movement of the EAP structure. A delay arrangement is used such that the mechanical output from the device is not generated for a first range or type of applied drive signals, and said device output is generated for a second range or type of applied drive signals. This device is for example particularly suitable for use in a passive matrix system.

Actuator device and array of the same

The invention relates to a method for producing a radiation detector used to detect ionizing radiation including a first inorganic-organic halide Perovskite material () as a direct converter material and/or as a scintillator material in a detector layer and to a radiation detector comprising a detector layer () produced by means of the steps of the method. In order to provide an approach for producing a thick layer (e.g. above 10 &#x3bc;&#x3b9;&#x3b7;) of Perovskite material suitable for a radiation detector, it is proposed to grow the material selectively on a seeding layer (), yielding in a thick polycrystalline layer. One suitable seeding layer () to grow lead Perovskite material is made of a bromide Perovskite material.

Method for producing a radiation detector and radiation detector

The invention relates to a substrate () for manufacturing an organic conversion device for converting electrical energy into light energy or light energy into electrical energy, wherein the substrate comprises a) an encapsulation layer () on the substrate, wherein the encapsulation layer includes a first inorganic layer (), a second inorganic layer () and an intermediate organic layer (), and b) a getter reservoir () in contact with the organic layer of the encapsulation layer. Water molecules will therefore not only be transported along the intermediate organic layer, but will also be gathered, especially absorbed, by the getter reservoir, if the encapsulation is damaged. This can slow down a transport of water molecules along a leakage path towards an organic conversion layer of the organic conversion device and hence slow down a possible degradation of the performance of the organic conversion device, if the encapsulation layer is damaged.

Encapsulated organic conversion device with getter reservoir

The invention relates to method for manufacturing an electronic device comprising an organic layer (). According to this method, a stack with a metal layer () and an organic layer () as first and second outer layers is structured by etching both these outer layers. In one particular embodiment, an additional metal layer () may be generated on the outermost metal layer () by galvanic growth through a structured isolation 10 layer (). After removal of said isolation layer (), the metal () may be etched in the openings of the additional metal layer (). In a further etching step, the organic material () may be removed in said openings, too.

Method for manufacturing an organic electronic device

The invention describes an OLED device () comprising an organic layer () which emits light (L) in operation and which is positioned between an essentially transparent anode layer () and an essentially opaque cathode layer (). The cathode layer () is deliberately structured along a main extension plane (EP) of the OLED device to comprise at least one cathode region () in which the cathode layer () is 10 present and a plurality of cathode-free regions () and/or at least one cathode-free region () of a larger extension, through which cathode-free regions and/or region () visible light (L) can pass in the direction of a cross extension (CE) of the OLED device. The invention also describes a production method of such OLED device ().

OLED device and method of producing an OLED device

The present invention relates to an encapsulated semiconductor device () provided on a flexible substrate (), a method of providing an at least partially encapsulated semiconductor device () on a flexible substrate () and a software product for providing an at least partially encapsulated semiconductor device () on a flexible substrate (). In a preferred embodiment, an encapsulation method is presented in which the organic layer () of an inorganic/organic/inorganic multilayer barrier () on a plastic foil () as a substrate is removed at the edges of an OLED (). The edges are subsequently sealed with a standard TFE process to encapsulate the OLED (). This enables cuttable OLEDs () that are cut out of a larger plastic substrate () and gives a method to reduce side leakage in OLEDs () that have been manufactured in a roll-to-toll process.

Encapsulated semiconductor device and encapsulation method

An apparatus is described for coating a flexible substrate with at least a first organic layer and a first inorganic layer. The apparatus comprises a first and a second chamber and an atmosphere decoupling slot between the first and the second chamber. A printing facility is arranged in the first chamber, for printing the flexible substrate with a mixture comprising at least one precursor for a polymer, oligomer or a polymer network and a polymerization initiator. A curing facility is arranged in the first chamber, for curing the deposited mixture, therewith forming the at least first organic layer. A vapor deposition facility is arranged in the second chamber, for depositing the at least first inorganic layer at the substrate provided with the at least first organic layer. The apparatus comprises a facility for guiding the flexible substrate along the printing facility, along the curing facility and via the atmosphere decoupling slot along the vapor deposition facility.

Coating method and coating apparatus

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Eindhoven, Netherlands

Herbert Lifka