Koninklijke Philips Corporation N.v.

Signify Holding B.v.

Philips Lighting Holding B.v.

Lumileds LLC

Nxp B.v.

Lumileds Holding B.v.

Philips Intellectual Property & Standards Gmbh

Marc Andre De Samber

Dzmitry Viktorovich Aliakseyeu

Ronaldus Maria Aarts

Norbertus Antonius Maria Sweegers

Johannus Wilhelmus Weekamp

Hugo Johan Cornelissen

Egbertus Reinier Jacobs

Johannes Wilhelmus Weekamp

Floris Maria Hermansz Crompvoets

Hendrik Jan Eggink

Olexandr Valentynovych Vdovin

Jochen Renaat Van Gheluwe

Ludovicus Johannes Lambertus Haenen

Egbert Lenderink

Kwong-Hin Henry Choy

Durandus Kornelius Dijken

Frank Verbakel

Ronald Dekker

Nicolaas Lambert

Mareike K Klee

Declan Patrick Kelly

Ralph Kurt

Josephus Arnoldus Henricus Maria Kahlman

Pierre Hermanus Woerlee

Adrianus Sempel

Christoph Gerard August Hoelen

Harry Broers

Josef Andreas Schug

Fetze Pijlman

Dragan Sekulovski

Antonius Adrianus Maria Marinus

Eduard Johannes Meijer

Koray Karakaya

Theodorus Johannes Petrus Van Den Biggelaar

Yourii Martynov

Kiran Hamilton J Dellimore

Hendrikus Hubertus Petrus Gommans

Céline Catherine Sarah Nicole

Maarten Petrus Joseph Kuenen

Rainer Kiewitt

Ralph Hubert Peters

Theodoor Cornelis Treurniet

Hugo Veenstra

Nicolaas Johannes Anthonius Van Veen

Ron Martinus Laurentius Van Lieshout

Jacobus Petrus Johannes Van Os

Johannes Franciscus Maria Cillessen

Marcellus Jacobus Johannes Van Der Lubbe

Paul Dijkstra

Romano Hoofman

Hans-Wolfgang Brand

Uwe Mackens

Ruslan Akhmedovich Sepkhanov

Eric Cornelis Egbertus Van Grunsven

Boudewijn Ruben De Jong

Roy Antoin Bastiaan Engelen

Esther Anna Wilhelmina Gerarda Janssen

Roger A Vranken

Filip Ilievski

Marten Sikkens

Renatus Hendricus Maria Sanders

Koen Van Os

Mark Eduard Johan Sipkes

Johan Bosman

Willem Hoving

Martin Fleuster

Eugene Timmering

Cornelis Slob

Antonius Constant Johanna Cornelis Van Den Ackerveken

Jorrit Jorritsma

Michael Johan Ferdinand Marie Ter Laak

Coen Tak

Thomas Weiss

Sander Petrus Martinus Noijen

Antonius Wilhelmus Maria De Laat

Cornelius Franciscus Jozef Rutjes

Edwin Petrus Alois Maria Tijssen

Antonius J M Nellisen

Antal F J Baggerman

Jacob Klerk

Erik Cornelis Egbertus Van Grunsven

Antonius Waltherus Jacobus Petrus Den Boer

Johannes Bloos

Arie Jan Hovestad

Maarten Kuenen

Gerard Kums

Esther Anna Wilhelminia Gerarda Janssen

Curtis Allen Leyk

Aaron Benjamin Stephan

Jack Tieberg

Shahin Mahdizadehaghdam

Vladimir Ossin

Brendan Jude Moran

Grigoriy Basin

Mark Melvin Butterworth

Oleg Borisovich Shchekin

The invention provides a conditioning device for conditioning at least one animal intended to experience a stressful event, such as e.g. slaughter, transport, and/or evacuation. The conditioning device comprises a controller configured to: obtain an identifier associated with the at least one animal; obtain an input indicative of a period of time in which said at least one animal receives a positive stimulus at a first location; control a lighting unit arranged for illuminating the first location to illuminate the at least one animal with a lighting characteristic at least partly during said period of time, and store an entry linking said identifier to said lighting characteristic in a memory. Complementary thereto, the invention further provides a lighting device for illuminating at least one animal intended to experience a stressful event, wherein the at least one animal is conditioned to a lighting characteristic with the conditioning device according to the invention, wherein the lighting device comprises: a light source; a communication interface for communication with a memory; a detecting unit configured to determine the identifier of the at least one animal; a control unit configured to retrieve, with the communication interface, an entry linking said identifier to said lighting characteristic from said memory, and to control the light source to illuminate the at least one animal with said lighting characteristic during said stressful event.

Conditioning device, a lighting device and a method

The lighting device includes a lens array having a plurality of lenses and a focal surface located at a focal distance from the lens array, a light source array having a plurality of light sources arranged to emit light towards the lens array with a light output distributed around a primary axis, and a cover layer having a light-transmissive surface portion delimiting light exit openings. The cover layer is positioned to substantially coincides with the focal surface. Each light source forms a combination with a closest lens, each combination having, in a plane perpendicular to the primary axis, a displacement length and a displacement direction, such that there are least two different displacement lengths and at least two different displacement directions.

Lighting device having light-transmissive cover layer between a lens array and a light source array

A lighting device () comprising a light generating element (), and a micro-lens () comprising a focal plane (F), wherein the light generating element () comprises a first light generating component () and a second light generating component (), wherein the first light generating component () comprises a light emitting surface () adapted for providing a diffuse light output component, wherein the second light generating component () comprises at least one array of light sources () adapted for providing a directional light output component, wherein the light generating element () is arranged to emit a light output towards the micro-lens array (), the light output being formed by a superposition of the diffuse light output component and the directional light N output component, and wherein the array of the light sources () is located in the focal plane (F) of the micro-lens array ().

Lighting device

The invention provides a lighting system () comprising a lighting device () configured to provide lighting device light () with a variable spectral distribution (SD), wherein the lighting system () comprises a control system configured to control the spectral distribution (SD) of the lighting device light (), wherein the lighting device () comprises at least two lighting modes (M,M), wherein: 5 (i) in a first lighting mode (M) the lighting device () is configured to provide white light () with a first spectral distribution (SD) in the visible with a first spectral intensity P, the first spectral distribution (SD) having a spectral intensity gap (G) configured in the spectral range of 430-600 nm, the spectral intensity gap (G) having a spectral gap width (GW) of at least 20 nm and a maximum spectral gap intensity PGof lighting device light () within the spectral intensity gap (G) of PG/P&#x2264;k, wherein k is a predefined intensity ratio value, and (ii) in a second lighting mode (M) the lighting device () is configured to provide white light () with a second spectral distribution (SD) with a second spectral intensity P, with a relatively enhanced intensity P* of the lighting device light () in the same spectral range of the spectral intensity gap (G) of the first lighting mode, wherein P*/P&#x3e;k.

Light source and method for augmenting color perception for color deficient persons

The present invention relates to an adapter () for coupling with a medical coupling unit () and a medical sensor () that are configured for being coupled for electrical signal transmission between them. The adapter comprises an adapter coupling unit () configured to fit with a coupling-side connector () of the medical coupling unit () and including a plurality of coupling-side electrical contacts () for contacting a plurality of electrical contacts () of the coupling-side connector () and a sensor-side connector () configured to fit with a sensor-side connector () of the medical sensor () and including a plurality of sensor-side electrical contacts () for contacting a plurality of electrical contacts () of the sensor-side connector (), allowing the adapter coupling unit () to be mechanically coupled between the medical coupling unit () and the medical sensor (). Further, the adapter comprises one or more wires () fixedly connected to the adapter coupling unit for coupling one or more sensor elements () with the adapter coupling unit for electrical signal transmission from the one or more sensor elements to the adapter coupling unit, and connection circuitry () within the adapter coupling unit () for connecting said sensor-side electrical contacts () and said one or more wires () with said coupling-side electrical contacts () allowing signal transmission from the medical sensor () and one or more sensor elements () coupled to the adapter coupling unit () to the medical coupling unit ().

Adapter and connection unit for coupling with medical coupling unit and sensor

A luminaire () comprises an array of lighting units () arranged as a plurality of regions (-). A reflector arrangement () is provided over the array of lighting units () for directing the light from each region (-) of the luminaire () to a different spread of light output directions. Each lighting unit () of at least one of the regions (-) comprises a first sub-unit () with a first polarised light output and a second sub-unit () with a second light output which is different from the first light output in polarisation, wherein the first and second sub-units () are independently controllable. In this way, light output in a certain range of directions can be controlled to have a desired polarisation. By actuating different sub-units (), the polarisation can be dynamically controlled. Thus, a system can be set up with a desired static polarisation output pattern, or the polarisation pattern may be controlled to evolve over time, for example in response to external user, sensor or data input.

Luminaire and lighting method

A method comprises forming a mask on a first surface of a substrate. The mask is patterned to form openings on the first surface of the substrate. Notches are formed in the first surface of the substrate in the openings. The mask is removed from the first surface of the substrate A plurality of LEDs are provided on the first surface of the substrate and between notches. A second surface of the substrate is thinned to expose the notches and separate the LEDs. The second surface of the substrate is opposite of the first surface of the substrate.

Method of separating light emitting devices formed on a substrate wafer

A method according to embodiments of the invention includes providing a light emitting semiconductor structure grown on a substrate. The substrate has a front side and a back side opposite the front side. Notches are formed in the substrate. The notches extend from the front side of the substrate into the substrate. After forming notches in the substrate, the back side of the substrate is thinned to expose the notches.

A device for monitoring the inhalation of airborne pollutant by a subject including a processor configured to determine or receive measurements of the amount of airborne pollutant around the subject and the amount of air inhaled by the subject, and to combine the measurements to determine a measure of the amount of airborne pollutant inhaled by the subject.

Device and method for monitoring a subject

The invention provides a lighting device () comprising a plurality of light source packages () each light source package () comprising a light source () and a polarizer () configured to polarize light source light () of said light source (), wherein the light source packages () are individually controllable, wherein the light source packages () are configured to provide polarized light source light () with at least two different polarization states (p,p), and wherein the light source packages () share a light exit window () for escape of the light source light () from said lighting device ().

Multi-mode polarized spot with electrically adjustable polarization state

The present invention relates to a lighting device () comprising a split lighting engine with at least two thermally separated sub-engines (). Each sub-engine comprises at least one solid state light source () and a component () adapted to regulate electric current or power to the at least one solid state light source (), so that the sub-engines () are individually drivable based on a thermal environment of each sub-engine.

Lighting device comprising a split lighting engine

A light source includes first and second semiconductor diode structures adapted to generate light, a light output section at least partially overlapping both of the first and the second semiconductor diode structures and being adapted to output light from the first and the second semiconductor diode structures, and a light reflecting structure at least partially enclosing side surfaces of the first and the second semiconductor diode structures and the light output section and being adapted to reflect light from the first and the second semiconductor diode structures towards the light output section. The area of the light output section is less than the combined area of the first and the second semiconductor diode structures.

Light emitting diodes and reflector

A light emitting arrangement is suggested for generating directional projections of light with sharply defined beam profile. Light from a top-emitting solid state light source (), having reflective side-coating (), is pre-collimated via a beam-shaping optic (), before being propagated through a secondary collimating funnel (), capturing any light rays with still too great an escape angle. Chip-scale package dimensions may be achieved through the use of a thin-film side-coating and undersized phosphor layers. Substrate level process flow further allows for parallel processing of a plurality of devices.

Directional light emitting arrangement and a method of producing the same

The invention provides a water-activatable luminescent particulate material () comprising particles (), wherein each particle () comprises a solid state light source () functionally coupled with a water-activatable battery () and a water absorbing shell () enclosing at least part of the water-activatable battery (). The invention also provides a luminescent particulate material spray device comprising a container configured to host the water-activatable luminescent particulate material.

Particulate water-activatable luminescent materials

In a wafer bonding process, one or both of two wafer substrates are scored prior to bonding. By creating slots in the substrate, the wafer's characteristics during bonding are similar to that of a thinner wafer, thereby reducing potential warpage due to differences in CTE characteristics associated with each of the wafers. Preferably, the slots are created consistent with the singulation/dicing pattern, so that the slots will not be present in the singulated packages, thereby retaining the structural characteristics of the full-thickness substrates.

Low warpage wafer bonding through use of slotted substrates

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Eindhoven, Netherlands

Marc Andre De Samber