Abstract:
A lighting element, comprising: a first substrate; a first and second conductive elements located on the first substrate; a light-emitting element having first and second contacts that are both on a first surface of the light-emitting element, the first contact being electrically connected to the first conductive element, the second contact being electrically connected to the second conductive element, and the light-emitting element emitting light from a second surface opposite the first surface; a top layer adjacent to the second surface; and an affixing layer located between the first substrate and the top layer, the affixing layer affixing the top layer to the first substrate; and a heat spreading layer having a third surface and a fourth surface opposite the third surface, the heat spreading layer being affixed beneath the first flexible substrate at the third surface, wherein the flexible top layer is substantially transparent to light.
Abstract:
Systems and methods are disclosed relating to a thermal overload protection apparatus and processes for protecting an electrical component. In one illustrative implementation, a thermal overload protection apparatus includes a switching element for short-circuiting connections of the component or for isolating an electrically conductive connection between at least one of the connections and a current-carrying element of the overload protection apparatus, an actuator for switching the switching element into a corresponding short-circuiting position or isolating position, and a tripping element that thermosensitively trips the actuator apparatus. and is formed as a separating element. According to further implementations, various other arrangements and methods for producing devices are disclosed.
Abstract:
An electronic part includes an electronic part body, an electrode terminal that protrudes from the electronic part body, and that electrically connects the electronic part to an external electrode when a flexible conductor is joined to an electrode surface, and a holder made of an insulating material, and joined to the electronic part body. The holder is interposed between a mounting plate and the electronic part body when the electronic part is mounted to the mounting plate, and the holder is in contact with a surface of the electrode terminal opposite from the electrode surface.
Abstract:
A method and arrangement are disclosed for electrically connecting a contact of a first substrate to a contact of a second substrate, whereby the first substrate is positioned relative the second substrate. The method includes providing the first substrate with its contact facing towards the second substrate, providing the second substrate with its contact facing away from the first substrate, bonding a bonding medium to the contact of the first substrate, bonding the bonding medium to the first substrate thereby forming a loop, electrically connecting the contact of the second substrate to the bonding medium, and providing the second substrate with the contact on a nose or tongue extending from an edge of the second substrate. The first substrate can be positioned below the second substrate, with a contact of the first substrate connected to a contact of the second substrate.
Abstract:
Power may be supplied to an electronic module according to various techniques. In one general implementation, for example, a system for supplying power to an electronic module may include a printed circuit board, the electronic module, and a conductive foil. The board may include a number of contact locations on a first side, with at least one of the contact locations electrically coupled to a via to a second side of the board. The electronic module may be electrically coupled to the contact locations on the first side of the board and receive electrical power through the at least one contact location electrically coupled to a via. The foil may be adapted to convey electrical power for the electronic module and electrically coupled on the second side of circuit board to at least the via electrically coupled to a contact location that receives electrical power for the electronic module.
Abstract:
A circuit board includes a first pinout set of USB 2.0 standard provided on the circuit board; a second pinout set provided on the circuit board; and a flexible metal strip having a jut and four pinouts corresponding to StdA_SSRX−, StdA_SSRX+, StdA_SSTX−, and StdA_SSTX+ of USB 3.0 standard.
Abstract:
An interposer for connecting a semiconductor and a circuit board includes an insulating material sheet, a through hole which is formed in the insulating material sheet and an elastic conductive contact which is formed from an elastic conductive sheet and provided in the through hole.
Abstract:
A connecting structure of the present invention includes a first substrate, a second substrate on which the first substrate is laminated, and a sheet like connection body having one end connected to one principal surface of the first substrate and another end connected to one principal surface of the second substrate, wherein a lengthwise direction of the sheet like connection body is parallel to a perimeter part of the first substrate, and the sheet like connection body has a slit part extending from one of end portions thereof to a part thereof along the lengthwise direction, and has a first end and a second end divided by the slit part at one of end portions, the first end is connected to a principal surface of the first substrate in vicinity of a peripheral part of the first substrate, and the second end is connected to a principal surface of the second substrate in vicinity of a peripheral part of the first substrate.
Abstract:
The invention relates to a wire-printed circuit board or card (1) comprising etched strip conductors (2) and wire conductors (6), which wire conductors run on and/or in the circuit board or card (1) between connection points (4). At least one of the wire conductors (6) has an essentially rectangular, for example, a square, cross-section.
Abstract:
The invention relates to an electrical contact arrangement of a spring contact element (10) on a printed circuit board (12) with a soldering area (16) arranged on a surface of the printed circuit board (12) and a planar contact area (18) arranged on the soldering area (16), wherein the spring contact element (10) can be arranged on the contact area (18).