Abstract:
According to an example, a device may comprise a touchscreen light guide assembly, a lens disposed on the touchscreen light guide assembly, and a printed circuit board including a relief cut on an edge of the printed circuit board. The relief cut may be to receive the touchscreen light guide assembly and to allow the lens to extend into the printed circuit board relief cut.
Abstract:
An ultra-high vacuum (UHV) compatible feedthrough structure and a detector assembly using such feedthrough structure is described. The feedthrough structure comprises: a printed circuit board (PCB) 206 for carrying one or more detectors 216, wherein said PCB comprises a top surface 214 and a back surface 212, wherein said top surface is covered with a first UHV sealing layer, preferably said first sealing layer comprising a liquid crystal polymer material; and, wherein said top surface comprises one or more first electrical electrodes and at least a first thermally conductive layer extending at least partly over said top surface; and, wherein said back surface comprises one or more second electrodes and at least a second thermally conductive layer extending at least partly over said back surface, said PCB further comprising one or more conductive wires embedded in said PCB for electrically connecting said one or more first electrodes with said one or more second electrodes respectively; and, said PCB further comprising one or more thermally conductive vias embedded in said PCB for thermally connecting said at least first thermally conductive layer with said second thermally conductive layer.
Abstract:
An object of the present invention is to provide a mounting substrate, a manufacturing method, a light-emitting module and an illumination device that can sufficiently improve the luminous efficiency of an LED lamp. A mounting substrate (101) according to the present invention includes a substrate (108) and a reflective film (106) that is formed on a front surface of the substrate (108) and has a front surface on which LED chips (102) are to be mounted, and the reflective film (106) is made of metal oxide microparticles and a glass frit, and reflects light from the LED chips (102).
Abstract:
An ultra-high vacuum (UHV) compatible feedthrough structure and a detector assembly using such feedthrough structure is described. The feedthrough structure comprises: a printed circuit board (PCB) 206 for carrying one or more detectors 216, wherein said PCB comprises a top surface 214 and a back surface 212, wherein said top surface is covered with a first UHV sealing layer, preferably said first sealing layer comprising a liquid crystal polymer material; and, wherein said top surface comprises one or more first electrical electrodes and at least a first thermally conductive layer extending at least partly over said top surface; and, wherein said back surface comprises one or more second electrodes and at least a second thermally conductive layer extending at least partly over said back surface, said PCB further comprising one or more conductive wires embedded in said PCB for electrically connecting said one or more first electrodes with said one or more second electrodes respectively; and, said PCB further comprising one or more thermally conductive vias embedded in said PCB for thermally connecting said at least first thermally conductive layer with said second thermally conductive layer.
Abstract:
Provided are a ceramic wiring substrate having few burrs in the vicinity of a notch provided on a side surface of a substrate main body, in which a conductor layer provided on the inner wall of the notch exhibits excellent solderability; a multi-piece ceramic wiring substrate array for providing a plurality of the wiring substrates; and a method for reliably producing the wiring substrate array. The ceramic wiring substrate 1a includes a substrate main body 2a which has a rectangular shape in plan view, and which has a front surface 3 and a back surface 4 and has side surfaces 5, each being located between the front surface 3 and the back surface 4, and having a groove surface 8a located on a side toward the front surface 3 and a fracture surface 7 located on a side toward the back surface 4; and a notch 6 which has a concave shape in plan view, and which is provided on at least one of the side surfaces 5 so as to extend between the front surface 3 and the back surface 4, wherein, in the side surface 5 having the notch 6, the boundary 11 between the groove surface 8a and the fracture surface 7 has curved portions 11r on opposite sides of the notch 6, the curved portions 11r being convex toward the front surface 3 of the substrate main body 2a in side view.
Abstract:
An object of the present invention is to provide a mounting substrate, a manufacturing method, a light-emitting module and an illumination device that can sufficiently improve the luminous efficiency of an LED lamp. A mounting substrate (101) according to the present invention includes a substrate (108) and a reflective film (106) that is formed on a front surface of the substrate (108) and has a front surface on which LED chips (102) are to be mounted, and the reflective film (106) is made of metal oxide microparticles and a glass frit, and reflects light from the LED chips (102).
Abstract:
The invention relates to a circuit carrier (1) and a method for the production thereof. The circuit carrier (1) is provided with a substrate (2) with two juxtaposed surfaces (3) and (4). The connecting contacts of a flat plug strip are arranged in the edge areas (5) of surfaces (3) and (4). A feedthrough (7) with a covered electrical connection to the rear side (8) of the connecting contact (6) is disposed underneath at least one of the connecting contacts (6) while the upper side of the connecting contact (6) has an undisturbed morphology and a flat surface.
Abstract:
A method for depositing a solder layer (280) or solder bump on a sloped surface (220). The method includes etching a sloped surface on a planar semiconductor substrate (200), depositing a solder-wettable layer (230) on the sloped surface, masking the wettabler layer with a coating layer (240) to control the position of the solder deposition, and using an organic film (250) to prevent the solder from being deposited at regions not above either the wettable layer or the coating layer. Also, a semiconductor device structure on which a solder layer or solder bump is formed exclusively on a sloped surface.
Abstract:
A connector pad (12) is provided having a base (22), a top (24) opposite the base, and tapered sidewalls (26) therebetween. The tapering minimizes stress concentrations when the connector (36) is bonded into, or on the surface of a structure. The connector pad consists of a plurality of structural load carrying plies (28) suitable for sandwiching a flat structurally integrated wiring array (20) therebetween. A plurality of plated through holes (32) formed in the connector pad (12) enable access to the wiring array therein.
Abstract:
The invention relates to a circuit carrier (1) and a method for the production thereof. The circuit carrier (1) is provided with a substrate (2) with two juxtaposed surfaces (3) and (4). The connecting contacts of a flat plug strip are arranged in the edge areas (5) of surfaces (3) and (4). A feedthrough (7) with a covered electrical connection to the rear side (8) of the connecting contact (6) is disposed underneath at least one of the connecting contacts (6) while the upper side of the connecting contact (6) has an undisturbed morphology and a flat surface.