Abstract: A lighting arrangement (10) is disclosed that comprises a plurality of solid state lighting elements (22) mounted on a grid of conductive wires (12), said grid comprising a plurality of grid segments (20) each defined by respective portions of adjacent conductive wires, each grid segment comprising a pair of reinforcement members (24, 26) affixed to said portions; and at least one said solid state lighting element mounted on said portions in between the reinforcement members of at least some of the grid segments. An apparatus and method for deforming such a lighting arrangement are also disclosed.

Abstract: Method and apparatus for the production of a 3D printed object (100), wherein the method comprises (i) a 3D printing stage, the 3D printing stage comprising 3D printing a 3D printable material (110) to provide the 3D printed object (100), wherein the 3D printing stage further comprises forming during 3D printing a channel (200) in the 3D printed object (100) under construction, wherein the method further comprises (ii) a filling stage comprising filling the channel (200) with a flowable material (140), wherein the flowable material (140) comprises a functional material (140a), wherein the functional material (140a) has one or more of electrically conductive properties, thermally conductive properties, light transmissive properties, and magnetic properties, and immobilizing said functional material (140a).

Abstract: A light source assembly comprising: a solid state lighting device; a wavelength converting element arranged to receive light emitted by the solid state lighting device and adapted to convert some of the received light to a different wavelength; and a scattering layer applied to a light emitting surface of the wavelength converting element. The scattering layer is adapted to scatter light back to the wavelength converting element, and a backscattering strength of the scattering layer varies over said light emitting surface so as to reduce variations in the color of the light emitted from the light emitting surface.

Abstract: A LED grid device comprising a LED grid and a plate-shaped member at which the LED grid has been arranged. The LED grid has several electrically conducting wires arranged side by side, and several LED modules, each LED module having a LED package, wherein each LED package is coupled to at least two wires of the electrically conducting wires. Each LED module further has a thermally conducting element positioned between two adjacent wires of the wires that the LED package is coupled to. The thermally conducting element carries the LED package, and protrudes from the LED package, and the thermally conducting element is attached to the plate-shaped member.

Abstract: A lighting device comprising a support panel located between two outer sheets, which support panel is provided with at least one light emitting module, while at least one of the outer sheets is translucent. The outer sheets are movable with respect to each other at least from a folded state in which the support panel and the outer sheets extend substantially parallel to each other and an unfolded state in which the outer sheets are at least partly further spaced apart than in the folded state.

Abstract: Disclosed is method of manufacturing a lighting arrangement (100) comprising a plurality of conductive wires (110) organized in a flexible grid comprising a plurality of grid nodes (115), each grid node comprising a first one of said conductive wires and a second one of said conductive wires, at least some of the grid nodes further comprising a solid state lighting element (120) conductively coupled to the first one of said conductive wires and the second one of said conductive wires, wherein each grid node comprises a mechanical support member (130, 134) including a polymer portion (130) embedding the first one of said conductive wires and the second one of said conductive wires.

Abstract: A lighting arrangement (10) is disclosed that comprises a plurality of solid state lighting elements (22) mounted on a grid of conductive wires (12), said grid comprising a plurality of grid segments (20) each defined by respective portions of adjacent conductive wires, each grid segment comprising a pair of reinforcement members (24, 26) affixed to said portions; and at least one said solid state lighting element mounted on said portions in between the reinforcement members of at least some of the grid segments. An apparatus and method for deforming such a lighting arrangement are also disclosed.

Abstract: The present invention relates to a grid-shaped lighting module (13; 23) comprising: a plurality of electrically conducting wires (15a-b) defining a grid with nodes (16a-c); and a plurality of solid-state light-sources (17a-c) each being arranged at a respective one of the nodes and connected to two electrically conducting wires of the plurality of electrically conducting wires. The electrically conducting wires (15a-b) are pleated such that the grid-shaped lighting module (13; 23) exhibits a 3D-topography. Various embodiments of the present invention provide improved mechanical stability and allows for thin illumination panels based on the grid-shaped lighting module.

Abstract: Disclosed is method of manufacturing a lighting arrangement (100) comprising a plurality of conductive wires (110) organized in a flexible grid comprising a plurality of grid nodes (115), each grid node comprising a first one of said conductive wires and a second one of said conductive wires, at least some of the grid nodes further comprising a solid state lighting element (120) conductively coupled to the first one of said conductive wires and the second one of said conductive wires, wherein each grid node comprises a mechanical support member (130, 134) including a polymer portion (130) embedding the first one of said conductive wires and the second one of said conductive wires.

Abstract: A lighting device comprising a support panel located between two outer sheets, which support panel is provided with at least one light emitting module, whilst at least one of the outer sheets is translucent. The outer sheets are movable with respect to each other at least from a folded state in which the support panel and the outer sheets extend substantially parallel to each other and an unfolded state in which the outer sheets are at least partly further spaced apart than in the folded state.

Abstract: A lighting device (1) comprising a support panel (2) located between two outer sheets (8, 10), which support panel is provided with at least one light emitting module (3), whilst at least one of the outer sheets (10) is translucent. The outer sheets are movable with respect to each other at least from a folded position in which the support panel and the outer sheets extend substantially parallel to each other and an unfolded position in which the outer sheets are at least partly further spaced apart than in the folded position. One of the outer sheets (8) is reflective, wherein, in the unfolded position of the lighting device, light emitted by the light emitting module towards the reflective outer sheet is reflected by the reflective outer sheet towards the translucent outer sheet through the support panel.

Abstract: There is provided a method for manufacturing a light emitting diode, LED, matrix (100) comprising the steps of providing with a maintained integrity a conductor sheet (150) with a plurality of component areas (111) interconnected with meandering connection tracks (116), mounting a plurality of LEDs (120) to a respective component area thereby forming a subassembly (100?), trimming and stretching the subassembly thereby straightening the connection tracks such that an m×n LED conductor matrix is formed during the step of stretching.

Abstract: A LED grid device comprising a LED grid and a plate-shaped member at which the LED grid has been arranged. The LED grid has several electrically conducting wires arranged side by side, and several LED modules, each LED module having a LED package, wherein each LED package is coupled to at least two wires of the electrically conducting wires. Each LED module further has a thermally conducting element positioned between two adjacent wires of the wires that the LED package is coupled to. The thermally conducting element carries the LED package, and protrudes from the LED package, and the thermally conducting element is attached to the plate-shaped member.

Abstract: There is provided a method for manufacturing a light emitting diode, LED, matrix (100) comprising the steps of providing with a maintained integrity a conductor sheet (150) with a plurality of component areas (111) interconnected with meandering connection tracks (116), mounting a plurality of LEDs (120) to a respective component area thereby forming a subassembly (100?), trimming and stretching the subassembly thereby straightening the connection tracks such that an m×n LED conductor matrix is formed during the step of stretching.

Abstract: The present invention relates to a grid-shaped lighting module (13; 23) comprising: a plurality of electrically conducting wires (15a-b) defining a grid with nodes (16a-c); and a plurality of solid-state light-sources (17a-c) each being arranged at a respective one of the nodes and connected to two electrically conducting wires of the plurality of electrically conducting wires. The electrically conducting wires (15a-b) are pleated such that the grid-shaped lighting module (13; 23) exhibits a 3D-topography. Various embodiments of the present invention provide improved mechanical stability and allows for thin illumination panels based on the grid-shaped lighting module.