Abstract:
The invention relates to a circuit board, particularly for a power-electronic module, comprising an electrically-conductive substrate which consists, at least partially and preferably entirely, of aluminium and/or an aluminium alloy. On at least one surface of the electrically-conductive substrate, at least one conductor surface is arranged in the form of an electrically-conductive layer applied preferably using a printing method and more preferably using a screen-printing method, said conductor surface being in direct electrical contact with the electrically-conductive substrate.
Abstract:
An illustrative inventory of vehicle accessory control components includes a plurality of first circuit boards and a plurality of second circuit boards. The first circuit boards each have a substrate with a plurality of circuit elements supported on the substrate. The first circuit board substrates have an overall perimeter shape including an outer edge profile and a plurality of first deviations from the outer edge profile. The second circuit boards each have a substrate with a plurality of circuit elements supported on them. The second circuit board substrates have the overall perimeter shape including the same outer edge profile as the first circuit board substrates. The second circuit board substrates include a plurality of second deviations from the outer edge profile. At least one portion of the second deviations is different than the first deviations of the first circuit boards.
Abstract:
Communications plugs are provided which include a printed circuit board having a plurality of elongated conductive traces and a plurality of plug blades. Each plug blade has a first section that extends along a top surface of the printed circuit board and a second section that extends along a front edge of the printed circuit board. Additionally, each plug blade may have a thickness that is at least twice the thickness of the elongated conductive traces. The plug blades may be low profile plug blades that are manufactured separately from the printed circuit board.
Abstract:
A microelectronic 3D packaging structure and a method of manufacturing the same are introduced. The microelectronic 3D packaging structure includes a first board with a plurality of a first edges and disposed with a first electronic device; a second board with a plurality of a second edges and disposed with a second electronic device, wherein at least one second edge of the second board is jointed to at least one first edge of the first board to form a joint line; and a joint connection portion disposed at the joint line of the two adjacent boards and adapted to function as a connection path for transmitting signals.
Abstract:
Communications plugs are provided which include a printed circuit board having a plurality of elongated conductive traces and a plurality of plug blades. Each plug blade has a first section that extends along a top surface of the printed circuit board and a second section that extends along a front edge of the printed circuit board. Additionally, each plug blade may have a thickness that is at least twice the thickness of the elongated conductive traces. The plug blades may be low profile plug blades that are manufactured separately from the printed circuit board.
Abstract:
The invention relates to a circuit board, particularly for a power-electronic module, comprising an electrically-conductive substrate which consists, at least partially and preferably entirely, of aluminium and/or an aluminium alloy. On at least one surface of the electrically-conductive substrate, at least one conductor surface is arranged in the form of an electrically-conductive layer applied preferably using a printing method and more preferably using a screen-printing method, said conductor surface being in direct electrical contact with the electrically-conductive substrate.
Abstract:
A circuit board module includes a first circuit board, a second circuit board and a connection layer. The first circuit board includes two first conductive layers, a first dielectric core layer and a first conductive via, the first dielectric core layer is formed between the two first conductive layers, and the first conductive via connects the two first conductive layers. The second circuit board includes two second conductive layers, a second dielectric core layer and a second conductive via, the second dielectric core layer is formed between the two second conductive layers, and the second conductive via connect the two second conductive layers. The connection layer is formed between the first circuit board and the second circuit board and combines the first circuit board with the second circuit board. The second circuit board is disposed on a side of the first circuit board.
Abstract:
A vehicle accessory control component includes a first circuit board substrate and a second circuit board substrate. The first circuit board substrate has a plurality of circuit elements and an overall perimeter shape including an outer edge profile and a plurality of first deviations along the outer edge profile. The second circuit board substrate has a plurality of circuit elements an outer edge profile and a plurality of second deviations along the outer edge profile, at least one of the second deviations being different than the first deviations. The first circuit board substrate and the second circuit board substrate are arranged in a plane and selectively movable relative to each other to form the overall perimeter shape of the substrate. The outer edge profile of the first and second circuit board substrates are received in a housing having a correspondingly shaped perimeter that generally conforms to the outer edge profile.
Abstract:
An illustrative inventory of vehicle accessory control components includes a plurality of first circuit boards and a plurality of second circuit boards. The first circuit boards each have a substrate with a plurality of circuit elements supported on the substrate. The first circuit board substrates have an overall perimeter shape including an outer edge profile and a plurality of first deviations from the outer edge profile. The second circuit boards each have a substrate with a plurality of circuit elements supported on them. The second circuit board substrates have the overall perimeter shape including the same outer edge profile as the first circuit board substrates. The second circuit board substrates include a plurality of second deviations from the outer edge profile. At least one portion of the second deviations is different than the first deviations of the first circuit boards.
Abstract:
The present application discloses a mount for mounting a flexible display panel, comprising a flexible frame comprising a first end, a second end, and a mounting surface for receiving the flexible display panel, a first flexible arm attached to the first end of the flexible frame. The first flexible arm is movable between a first position such that the first flexible arm is substantially retracted into the flexible frame and a second position such that the first flexible arm is substantially extended from the flexible frame. When the first flexible arm is substantially extended from the flexible frame, the first flexible arm is capable of connecting to the second end of the flexible frame directly or indirectly and forming a ring comprising the first flexible arm and the flexible frame.