Abstract:
Provided is a drive unit for an auto-injector having a drive unit housing arranged for docking receipt of a syringe or of a cassette unit comprising a syringe movable from a rest position, in which a needle tip of the syringe is within the drive unit housing to a use position, in which the needle tip protrudes from a needle delivery aperture; and a drive arrangement including one or more electrically powered sources of axial drive; a first drive transfer element for advancing the syringe to said use position; and a second drive transfer element for moving a plunger into the barrel of the syringe to eject liquid contents thereof. The drive unit housing is provided with a skin sensor arrangement having an array of plural skin sensor electrodes located about the needle delivery aperture.
Abstract:
An arrangement is provided that uses the differential approach to effectively remove noise contained in a signal in a line even in a touch panel that includes some lines that are separated from each other at a larger distance. The touch panel (2) includes: a touch panel substrate (22), a plurality of Y-direction electrodes (23) provided on the touch panel substrate (22); a plurality of lines (24, 34) electrically connected with the Y-direction electrodes (23); and a floating electrode (61) located within a predetermined distance from at least one of the lines (24, 34) and another line adjacent the at least one line such that noise produced in the at least one line can be propagated to reach the other line.
Abstract:
A flexible printed circuit board (FPCB) includes a main portion and a number of interfaces connected to the main portion. The main portion incorporates a low-voltage differential signal (LVDS) cable and at least one function cable. The main portion includes a first connecting strip, a second connecting strip, and a third connecting strip, which are all connected together at one end. The interfaces includes a first interface connected to the first connecting strip, a second interface connected to the second connecting strip, and a third interface connected to the third connecting strip. The first interface incorporates a LVDS interface and a function module interface. The second interface is a LVDS interface. The third interface is a function module interface.
Abstract:
Embodiments of the invention include a plurality of flexible electrical conductors configured as a cable wherein a plurality of signal pairs connect printed circuit boards in an array of data storage devices or just a bunch of disks (JBOD) enclosure. By controlling various specific dimensions relating to each signal pair of electrical conductors in a flexible cable, the performance of a JBOD box or a data storage server can be maximized. Furthermore, flexible cable designs can themselves replace bulkier circuit boards enabling greater air flow through the JBOD box or data storage server.
Abstract:
An apparatus comprises a flexible circuit substrate that includes a body portion and at least one connector portion formed monolithically with the body portion. The connector portion is shaped by at least one of one or more bends of the flexible circuit substrate or one or more folds of the flexible circuit substrate, and the connector portion is configured to be received in a receptacle of a connector device. The apparatus also includes at least one electrode formed on the connector portion and configured to make electrical contact with an electrical conductor of the receptacle of the connector device, at least one electronic component on the flexible circuit substrate, and interconnect to provide electrical continuity from the electrode to the electronic component.
Abstract:
The flexible printed circuit board includes a plane part, a plurality of bending parts extending and bent from the plane part, wherein each of the plane part and the bending parts includes a base film, a wiring pattern, a cover film and a wiring pattern of the plane part and wiring patterns of the bending parts are electrically connected to each other. The display device including a display panel; one or more flexible printed circuit board electrically connected to the display panel; a main driving printed circuit board electrically connected to the flexible printed circuit board, wherein the one or more flexible printed circuit board includes a first part, a plurality of second parts extending from the first part, and each of the first parts and the second parts includes a base film, a wiring pattern, a cover film disposed on the base film and the wiring pattern.
Abstract:
Disclosed herein is a cost effective rigid- flex circuit board comprising a flexible section which contents at least one flexible flat cable for interconnect, and a plurality of rigid sections which consists of at least one rigid printed circuit board (8) for components mounting. The improved flexible flat cable comprising at least one layer of flat wires laminated with a plurality of insulating material. The flat wires having non-uniform width and pitch are folded with different angle along the length to resemble wiring patterns of a typical flexible printed circuit board. The rigid section consists of at least one piece of rigid printed circuit board having at least one layer of circuit pattern.
Abstract:
A wiring board to be inserted between collector foils of each unit cell in a stacked battery includes a comb-shaped insulating substrate and a wiring layer. The insulating substrate has a plurality of teeth and a rod, and the wiring layer is formed on the insulating substrate and includes a plurality of lead wires individually extending from a distal end of each of the plurality of teeth to an end of the rod to deliver a current of a potential across a conductive member being in contact with the distal ends of the teeth to the end of the rod.
Abstract:
A light emitting module includes a carrier unit, a substrate unit, and a light emitting unit. The carrier unit includes at least one carrier body, and the carrier body has a mounting portion. The substrate unit includes at least one bendable substrate. The bendable substrate includes a plurality of substrate portions and a plurality of bending portions, the substrate portions are disposed on the mounting portion of the carrier body, and each bending portion is disposed between every two corresponding substrate portions. The light emitting unit includes a plurality of light emitting groups respectively disposed on the substrate portions, and each light emitting group includes at least one light emitting element electrically connected to each corresponding substrate portion. Because the substrate portions can be disposed on different planes after bending the substrate portions, thus light sources respectively generated by the light emitting elements can be projected toward different directions.
Abstract:
A light assembly, and an associated method, for illuminating a target. Light energy is generated by a plurality of LED light sources that are mounted on a substrate. Light energy generated by the LED light sources is caused to be projected towards a central focal area. The substrate is folded into a concave-shaped configuration, and the light energy generated by the LED lights is caused to be projected towards the central focal area, permitting focusing of the light energy.