Abstract:
An article of manufacture for supplying a power to a load connected in a capacitive power transfer system comprises a sheet (210) of a non-conductive material; and a plurality of conductive stripes (220), each two adjacent conductive stripes being electrically insulated from each other, wherein the sheet forms an insulating layer of the capacitive power transfer system and the plurality of conductive stripes form at least a pair of transmitter electrodes of the capacitive power transfer system.
Abstract:
A laminate panel (201) for wireless capacitive power transfer includes a clear protective top layer (206),a photographic layer (205) under the protective top layer (206),a conductive layer (202) under the photographic layer (205),and an inner core layer (203) under the conductive layer(202). One or more conductive layers in the laminate panels form a pair of transmitter electrodes, which couple to a power driver (110).
Abstract:
It is disclosed an optical element (200) wherein one or more light-emitting diodes, LEDs, and additional optics may be provided in an integrated solution that may relatively easily be assembled and maintained in a desired position relatively each other. The optical element (200) may enable one or more LEDs and additional optics to be provided in an integrated solution that is relatively thin and compact in comparison with known devices, such that light from one or more LEDs may be injected into a thin light guide (205, 206) such as an optical fiber, an optical fiber array, a ribbon-shaped light-guiding structure, etc.
Abstract:
A debris prevention system is constructed and arranged to prevent debris emanating from a radiation source from propagating with radiation from the radiation source into or within a lithographic apparatus. The debris prevention system includes a first foil trap that is rotatable around an axis of rotation, and a second foil trap that at least partly encloses the first foil trap. The second foil trap includes a plurality of foils optically open respective to a central location for placement of a radiation source and optically closed respective to directions perpendicular to the axis of rotation.
Abstract:
A lithographic apparatus includes a radiation source and an object (301) with a first surface (302) which is configured to retain metal contaminants. This surface has the function of a getter. The first surface is arranged substantially outside the region traversed by the radiation beam generated by the radiation source during lithographic processing. The first surface may further be used to retain volatile contaminants generated in a cleaning method.
Abstract:
The invention provides a method for intuitively guiding a human to a reference location, such as an emergency exit, with a lighting system comprising a plurality of light sources along a pathway to the reference location. The lights shine with an intensity dependent upon the distance to the reference location, in particular the intensity of the light increases with decreasing distance to the reference location. The location of the emergency can be determined through emergency sensors, so that the intensity of the light sources is then controlled to lead away from the danger to the nearest safe exit.
Abstract:
The invention provides a wireless electrical power supply unit (100) comprising a sender connector (120) configured to transfer wireless electrical power by means of an AC signal to an external receiver connector (320). The invention further provides an arrangement (400), wherein such wireless electrical power supply (100) may be applied, comprising a light transmissive cover (410) and a lighting system (420) configured to provide lighting system light (421) through the light transmissive cover (410), wherein the lighting system (420) comprises the receiver connector (320) configured to receive wireless electrical power, by means of an AC signal (of the wireless electrical power supply unit (100)).
Abstract:
The invention provides a carpet unit arrangement comprising a carpet unit and a light source. The carpet unit comprises a carpet or a carpet tile, wherein the carpet unit comprises a user face, formed by carpet tuft yarns, and an opposite back face. Seen in a direction from the user face to the back face, the light source is arranged behind the user face of the carpet unit. The light source is further arranged to provide light downstream of the user face of the carpet unit. The carpet unit is an axminster-based carpet unit, comprising wefts, warps and said tuft yarns.
Abstract:
The invention provides a stack arrangement (100) comprising a support (30) and a support cover (20). The support cover (20) may be wall paper, and carpet, PVC flooring, linoleum flooring and plaster. At a position (1) between the support (30) and the support cover (20) a lighting unit (10) is configured to provide light (15) through the support cover (20). The support cover (20) and the support (30) are adhesively bonded to each other. The lighting unit (10) is releasably bonded to at least one of the support (30) and the support cover (20) via a release liner unit (40). The release liner unit (40) comprises a release liner (141) for releasable binding.
Abstract:
The invention provides a textile product (1) having a lighting function. The textile product (1) comprises (a) a coated textile structure (2) comprising a textile (200) with a first textile coating (211) at a first side (210) and optionally a second textile coating (222) at a second side (220) of the textile (200); (b) a lighting unit(300) comprising a substrate (310) with a substrate surface (311) and a light source (330) comprised by the substrate surface (311), wherein the lighting unit (300) is arranged within the coated textile structure (2), wherein the lighting unit (300) is arranged to provide light (331) through the first textile coating (211), wherein the substrate surface (311) further comprises an electrically conductive connector part (340), and wherein the connector part (340) is arranged to supply electrical power to the light source (330) when electrically connected to an electrical power source (500).