Abstract: A method for producing a 3D item (1) by means of fused deposition modelling, the method comprising a 3D printing stage comprising layer-wise depositing an extrudate (321) comprising 3D printable material (201), to provide the 3D item (1) comprising 3D printed material (202), wherein the 3D item (1) comprises a plurality of layers (322) of 3D printed material (202), and an opening (405) in the 3D printed material (202), the opening (405) having an opening edge (410) that is at least partly defined by one or more interruptions (1410) in a subset (1322) of one or more layers (322) of the plurality of layers (322), wherein the method comprises providing each interruption (1410) by 3D printing a layer (322) of the subset (1322) with oppositely arranged turns (415), wherein each turn (415) connects a first layer part (3221) and a second layer part (3222), the first layer part (3221) and the second layer part (3222) forming legs of a U-turn (435), wherein, for each turn (415), the first layer part (3221) has a first

Abstract: The invention provides a method for producing a 3D item (1) by means of fused deposition modelling, the method comprising a 3D printing stage comprising layer-wise depositing 3D printable material (201) to provide the 3D item (1) comprising 3D printed material (202), wherein the 3D item (1) comprises a plurality of layers (322) of 3D printed material (202), wherein the plurality of layers (322) comprises a stack (1300), wherein the stack (1300) comprises a first layer (1322) and a second layer (2322), wherein the method comprises:—3D printing the first layer (1322) and subsequently the second layer (2322) while providing a plurality of modulations (340) in a z-direction in at least one of the first and second layers (1322, 2322), thereby defining a plurality of openings (354) between the first and second layers (1322, 2322).

Abstract: The invention provides a method wherein single layers of a wall element, consist of two (or more) strands. One of the strands is located at one side of the layer and another one of the strands is arranged at the other side of the layer. However, at one or more positions these sides may be changed. In this way, e.g. color, reflectivity, transmissivity, and or other optical properties may be controlled. Further, a strong(er) layer may be obtained. Printing becomes more flexible, as the two strands may essentially be printed continuously. There will thus be change positions within the layer where one strand is over the other, or vice versa. In order not to increase layer thickness (at those change positions), as all strands are within the same layer, at the change positions the layer thickness of the strands may be decreased. In specific embodiments, there may be a temporary stop during printing of one of the strands at the change position to provide space for the future strand.

Abstract: A light-emitting device (100) is disclosed. The light-emitting device (100) comprises a plurality of light-emitting elements (135) or light sources and a power module (120) adapted to selectively convey, supply or provide electrical power to the light-emitting elements (135). The power module (120) may be dimensioned such as to be able to power only a proper subset of the light-emitting elements (135) of the light-emitting device (100) at a given time, the subset having a maximum number of light-emitting elements (135) included therein with respect to the number of light-emitting elements (135) included in the all subsets of the light-emitting elements (135) of the light-emitting device (100).

Abstract: The invention provides a method for producing a 3D item (1) by means of fused deposition modelling, the method comprising a 3D printing stage comprising layer-wise depositing an extrudate (321) from 3D printable material (201), to provide the 3D item (1) comprising 3D printed material (202), wherein the 3D item (1) comprises a plurality of layers (322) of 3D printed material (202), wherein each layer (322) has a layer height (H) and a layer width (W), wherein the 3D printing stage comprises generating a stack (1322) of the layers (322) of the 3D printed material (202), wherein at a fixed first x,y-position the layer height (H) is varied layer by layer for a subset of a total number of layers (322), wherein either (i) the layer height (H) increases for consecutive layers (322) and then the layer height (H) decreases for consecutive layers (322), or (ii) the layer height (H) decreases for consecutive layers and then the layer height (H) increases for consecutive layers (322); and wherein at least part of the 3D

Abstract: A light-emitting device (100) is disclosed. The light-emitting device (100) comprises a plurality of light-emitting elements (135) or light sources and a power module (120) adapted to selectively convey, supply or provide electrical power to the light-emitting elements (135). The power module (120) may be dimensioned such as to be able to power only a proper subset of the light-emitting elements (135) of the light-emitting device (100) at a given time, the subset having a maximum number of light-emitting elements (135) included therein with respect to the number of light-emitting elements (135) included in the all subsets of the light-emitting elements (135) of the light-emitting device (100).

Abstract: A method for producing a 3D item (1) by means of fused deposition modelling, the method comprising a 3D printing stage comprising layer-wise depositing an extrudate (321) comprising 3D printable material (201), to provide the 3D item (1) comprising 3D printed material (202), wherein the 3D item (1) comprises a plurality of layers (322) of 3D printed material (202), and an opening (405) in the 3D printed material (202), the opening (405) having an opening edge (410) that is at least partly defined by one or more interruptions (1410) in a subset (1322) of one or more layers (322) of the plurality of layers (322), wherein the method comprises providing each interruption (1410) by 3D printing a layer (322) of the subset (1322) with oppositely arranged turns (415), wherein each turn (415) connects a first layer part (3221) and a second layer part (3222), the first layer part (3221) and the second layer part (3222) forming legs of a U-turn (435), wherein, for each turn (415), the first layer part (3221) has a first

Abstract: The invention provides a method for manufacturing a 3D item (10) comprising an electrically conductive coil (140) of at least part of an electrically conductive wire (51), wherein the method comprising printing with a fused deposition modeling (FDM) 3D printer (500) 3D printable material (201), wherein the 3D printable material (201) comprises the electrically conductive wire (51), to provide the 3D item (10) comprising the electrically conductive coil (140).

Abstract: An arrangement (100) and method for suspending a lighting device is provided. The arrangement comprises a spring element (110) having a central, U-shaped portion (120) and a first and a second coil (130a, 130b) extending from a respective first and second leg (140a, 140b) of the central portion and along an axis (A) parallel to a base (145) of the portion. The coils, in an unbiased state of the spring element, are spaced apart by a first distance (d) along the axis (A). The arrangement further comprises a housing (200) comprising a first and a second cavity (210a, 210b) spaced apart by the first distance (d) for fitting accommodation of the first and second coil, respectively. The arrangement further comprises a support element (300) arranged between the first and second cavities and configured to confine the first and second coil within the first and second cavity, respectively.

Abstract: A method of producing a fastening device, and a fastening device, is provided. The method comprises the steps of forming a body elongating along a first axis by iteratively stacking layers, wherein the body comprises an at least partially open cavity elongating along the first axis. The method further comprises the step of forming a first and second chambers in the cavity, and forming an element, of which element a first portion projects into the first chamber and of which element a third portion projects from the cavity of the body in the first plane. The element is rotatably arranged, such that upon rotation of the element, the third portion of the element is configured to be releasably wedged within the chamber.

Abstract: The present invention relates to a lighting device, which comprises a structure of interconnected sleeves and a light emitting arrangement arranged inside the sleeves. The structure forms a polygon mesh and light sources on the light emitting arrangement can be positioned by the structure so that the problem of glare can be reduced. The present invention also provides a sound-absorbing, flexible and collapsible structure which can be used in e.g. large scale architectural panels, horticulture and phototherapy devices. The lighting device can be produced by connecting the sleeves with thermoplastic material or by sewing.

Abstract: The invention provides a method for manufacturing a 3D item (10) comprising an electrically conductive coil (140) of at least part of an electrically conductive wire (51), wherein the method comprising printing with a fused deposition modeling (FDM) 3D printer (500) 3D printable material (201), wherein the 3D printable material (201) comprises the electrically conductive wire (51), to provide the 3D item (10) comprising the electrically conductive coil (140).

Abstract: An arrangement (100) and method for suspending a lighting device is provided. The arrangement comprises a spring element (110) having a central, U-shaped portion (120) and a first and a second coil (130a, 130b) extending from a respective first and second leg (140a, 140b) of the central portion and along an axis (A) parallel to a base (145) of the portion. The coils, in an unbiased state of the spring element, are spaced apart by a first distance (d) along the axis (A). The arrangement further comprises a housing (200) comprising a first and a second cavity (210a, 210b) spaced apart by the first distance (d) for fitting accommodation of the first and second coil, respectively. The arrangement further comprises a support element (300) arranged between the first and second cavities and configured to confine the first and second coil within the first and second cavity, respectively.

Abstract: There is provided a light treatment device (1). The device (1) comprises a carrier (11) having an opening (5) for positioning over and viewing a treatment area and a light emitter (6) for providing treatment light to the treatment area. There is also provided an attachment (3) for attaching the carrier to a patient. The device is useful as the opening can be positioned over an area where light therapy is desired, whilst viewing the area, and then held in position with the attachment. Light therapy can then be administered to the area and treatment of areas where light therapy is not desired can be avoided.

Abstract: The invention provides a method for 3D printing a 3D item (1), the method comprising providing 3D printable material (201) to a printer nozzle (502), using force for expelling the 3D printable material through the printer nozzle (502), and depositing during a printing stage a filament (320) comprising 3D printable material (201) via the printer nozzle (502), to provide the 3D item (1) comprising 3D printed material (202), wherein the method further comprising sensing a force-related parameter for controlling extrusion rate of the 3D printable material (201).

Abstract: A method of producing a fastening device, and a fastening device, is provided. The method comprises the steps of forming a body elongating along a first axis by iteratively stacking layers, wherein the body comprises an at least partially open cavity elongating along the first axis. The method further comprises the step of forming a first and second chambers in the cavity, and forming an element, of which element a first portion projects into the first chamber and of which element a third portion projects from the cavity of the body in the first plane. The element is rotatably arranged, such that upon rotation of the element, the third portion of the element is configured to be releasably wedged within the chamber.

Abstract: A light-emitting device (100) is disclosed. The light-emitting device (100) comprises a plurality of light-emitting elements (135) or light sources and a power module (120) adapted to selectively convey, supply or provide electrical power to the light-emitting elements (135). The power module (120) may be dimensioned such as to be able to power only a proper subset of the light-emitting elements (135) of the light-emitting device (100) at a given time, the subset having a maximum number of light-emitting elements (135) included therein with respect to the number of light-emitting elements (135) included in the all subsets of the light-emitting elements (135) of the light-emitting device (100).

Abstract: The invention provides a lighting unit, comprising a light source and a light sensor arrangement. An optical feedback path is provided from the light source (or another light source in the same overall system) to the light sensor arrangement. The light source is turned on in response to an external input and is maintained on as a result of the optical feedback path. This lighting unit can be turned on using an signal such as an optical signal which is received from an external source, and then maintained on using optical feedback from the light source itself. This makes it possible to control a lighting unit area such as a wall using an external device such as a torch or laser pointer, without the need for complex electronic protocols.

Abstract: The present invention relates to a lighting device, which comprises a structure of interconnected sleeves and a light emitting arrangement arranged inside the sleeves. The structure forms a polygon mesh and light sources on the light emitting arrangement can be positioned by the structure so that the problem of glare can be reduced. The present invention also provides a sound-absorbing, flexible and collapsible structure which can be used in e.g. large scale architectural panels, horticulture and phototherapy devices. The lighting device can be produced by connecting the sleeves with thermoplastic material or by sewing.

Abstract: A lighting device (100) is provided comprising optically transmissive emitters and receivers. The receivers are configured to receive power via an optical signal transmitted from a light source (102). Furthermore, the receiver is provided with functionality for converting the optical signal to electrical power and supply an emitter with the electrical power. The optical signal may further comprise an address such that a receiver-emitter pair of the device may be wirelessly individually addressed and controlled. The optical signals of the device are not guided but are free to propagate through optically transmissive receivers, optically transmissive emitters or other optically transmissive materials of the lighting device. This enables a lighting device which provides new light effects in a simple manner.