Abstract: An electrical connector includes an insulative housing (3), a plurality of terminals (4) retained in the housing and a slider (5) moveably assembled to the housing. The terminal (4) has a first arm (42) and a second arm (43) both protruding into a mating room (34) defined by the insulative housing. The slider defines an urging portion (52) for driving a flexible printed circuit board engaging with the terminals when the slider moving to a closed position from an opened position. The urging portion has a first contacting surface (521) and a second contacting surface (522) at same side thereof. The first contacting surface is located closer to the first arm than the second contacting surface at a vertical direction. The second arm is located below the first contacting surface at said opened position and engaging with the second contacting surface at said closed position.

Abstract: A keyboard connecting mechanism includes a frame, a cable, and a socket. The frame is connected to a keyboard. At least one first positioning structure is disposed on the frame. The cable is disposed on a side of the frame. The cable includes a plurality of pins, and at least one hole is formed on the cable. The socket includes a base. At least one second positioning structure is formed on a first side of the base for connecting with the first positioning structure so as to fix the frame and the cable. The socket further includes a plurality of fragments disposed on the first side of the base for applying elastic force to the plurality of pins of the cable. The socket further includes at least one elastic structure disposed on a lateral side of the base for fixing the frame elastically.

Abstract: An endoscope electric connection device accommodated within a scope connector for connecting an electronic endoscope and an external apparatus, the device including a first band having a first contact portion to which a signal line of a transmission cable for transmitting an image signal from an image pickup unit of the electronic endoscope is connected and a second contact portion to which a ground line of the transmission cable is connected, a second band having a third contact portion connecting to a connector for electrically connecting to the external apparatus and having flexibility, and a transmitting portion provided in the first band and second band for electrically connecting the first contact portion and second contact portion to the third contact portion, wherein the transmitting portion can keep electric connection between the first contact portion and second contact portion and the third contact portion even with the second band bent.

Abstract: A Flat Flex Connector (FFC) has connector flanges embedded in its insulated electrical traces. The flanges engage electrical circuits in a camera module such as a CMOS or CCD and are clamped into electrical engagement. The opposite end of the FFC makes electrical contact with another electrical device such as a semiconductor circuit. The assembly allows electrical connection of two or more devices in a confined space in which the electrical device are not easily aligned for electrical contact.

Abstract: A device includes a chassis and a flexible printed circuit. The flexible printed circuit has a terminal portion which is disposed so as to overlap with a mounted area of a circuit board mounted on a surface of the chassis. The device includes a connection auxiliary member which is disposed on the surface of the chassis at a position close to the terminal portion. The connection auxiliary member includes a fixed portion fixed to the surface of the chassis and a deformed portion connected to the fixed portion. The deformed portion deforms so that a part thereof rises from the surface of the chassis by pushing the deformed portion toward the fixed portion to lift up the terminal portion of the flexible printed circuit from the surface of the chassis.

Abstract: A method of making a printed circuit board in which at least three substrates are aligned and bonded together (e.g., using lamination). Two of the substrates have openings formed therein, with each opening including a cover member located therein. During lamination, the cover members for a seal and prevent dielectric material (e.g., resin) liquefied during the lamination from contacting the conductive layers on the opposed surfaces of the inner (first) substrate. A PCB is thus formed with either a projecting edge portion or a plurality of cavities therein such that electrical connection may be made to the PCB using an edge connector or the like.

Abstract: An electrical connector assembly comprises an insulative housing defining a receiving cavity extending inwardly from a mating face thereof and a plurality of terminal receiving passages disposed in the insulative housing and in communication with the receiving cavity. A plurality of terminals are received into the corresponding terminal receiving passages. A FFC module defines a pair of FFCs with a pair of first mating portions at one end thereof and an insulative insert having a lower half section disposed between the pair of first mating portions. The FFC module has an inserting portion received into the receiving cavity of the insulative housing.

Abstract: Flexible paddle cards for installation on a motherboard of a computing system are disclosed that are oriented parallel with the motherboard when installed in the computing system and include: a printed circuit board; and three card connectors that correspond to three motherboard connectors mounted on the motherboard, two of the card connectors mounted on a first rigid region of the printed circuit board, the remaining third card connector mounted on a second rigid region of the printed circuit board, and the first rigid region and the second rigid region separated by a flexible region of the printed circuit board, the flexible region having a width that allows the printed circuit board to flex when the card connectors mate with the motherboard connectors.

Abstract: A low-profile socket contact is provided that is mountable on a print substrate and has a high contact pressure. The socket contact includes a base portion provided on a print substrate, and a contact connecting portion connecting to the tab-shaped contact provided on a central portion of the base portion. The base portion has an opening in which the tab-shaped contact passes through, and a plurality of lead portions solderable to the print substrate. The contact connecting portion has a pair of first bending fragments, a pair of first inverted arms, a pair of second bending fragments, and a pair of second inverted arms. A contact point in contact with the tab-shaped contact is provided on each front ends of the pair of first inverted arms, and a guiding face in which the tab-shaped contact slides is provided on the pair of second inverted arms.

Abstract: In one embodiment, an electrical connector for a printed circuit board includes a body having a fixation portion for affixing the connector to an associated printed circuit board. The fixation portion includes a first side formed between a second and third side. A first tab member extends from the first side, wherein the first tab member is configured to exert a compressive force on an associated flex connector to securely hold the associated flex connector between the first tab member and the associated printed circuit board.

Abstract: A sensor interconnect assembly has a circuit substrate. An emitter portion of the substrate is adapted to mount emitters. A detector portion of the substrate is adapted to mount a detector. A cable portion of the substrate is adapted to connect a sensor cable. A first group of conductors are disposed on the substrate electrically interconnecting the emitter portion and the cable portion. A second group of conductors are disposed on the substrate electrically interconnecting the detector portion and the cable portion. A decoupling portion of the substrate disposed proximate the cable portion substantially mechanically isolating the cable portion from both the emitter portion and the detector portion so that sensor cable stiffness is not translated to the emitters or the detector.

Abstract: A circuit device of the present invention includes a first element which is placed parallel to a first reference plane and which senses a physical quantity, and a second element placed parallel to a second reference plane which intersects the first reference plane at a predetermined angle. The circuit device further includes a sealing resin for integrally sealing the first and second elements, a first conductive pattern which is electrically connected to the first element and placed parallel to the first reference plane and which has a back surface exposed from the sealing resin, and a second conductive pattern which is electrically connected to the second element and placed parallel to the second reference plane and which has a back surface exposed from the sealing resin.

Abstract: A multi-socket assembly comprising a plug unit operatively connected to at least one socket unit wherein the assembly is formed as an integral body comprising at least one suitable electrically insulating material that encapsulates the electrical connections between the plug unit and the at least one socket unit.

Abstract: An electrical connector that utilizes a flexible substrate for providing electrical contact surfaces within the electrical connector is disclosed. Advantageously, the electrical contact surfaces can be precisely formed on the flexible substrate such that manual assembly of individual contacts (e.g., pins) for a connector can be avoided. In one embodiment, the flexible substrate also facilitates connection of the electrical connector to other electrical components, such as other substrates, integrated circuits, etc., without having to solder leads or pins of a connector to a printed circuit board. In one implementation, the flexible substrate can be integrally formed with a system substrate.

Abstract: In one embodiment, a system comprises one or more processors, a first circuit assembly having a plurality of circuit traces, a second circuit assembly having a plurality of circuit traces, a cable assembly connecting the plurality of circuit traces on the first circuit assembly to the plurality of circuit traces on the second circuit assembly, signal generating circuitry to generate signal values on one or more of the plurality of circuit traces in the first circuit assembly, and a memory module communicatively connected to the one or more processors and comprising logic instructions which, when executed on the one or more processors configure the one or more processors to compare signal values on one or more of the plurality of circuit traces in the second circuit assembly to an expected signal value.

Abstract: The invention relates to a flat cable connector for sealed applications. An object of the invention is to show a new and considerably improved kind of a flat cable connector for sealed applications, compared to the current state of the art.

Abstract: A flexible wiring member, which is capable of being wound around a wire harness, is provided with joint-side terminals 14a, which are capable of being fitted with wire-side terminals, and the flexible wiring member includes a connection circuit for electrically connecting specified joint-side terminals in the joint-side terminals 14a. Or, a plurality of joint-side terminals are previously held in the insulation housing, and these joint-side terminals are connected with a common flexible wiring member.

Abstract: An electronic system which includes a power delivery surface that delivers electrical power to an electrical or electronic device. The power delivery surface may be powered by any electrical power source, including, but not limited to: wall electrical outlet, solar power system, battery, vehicle cigarette lighter system, direct connection to electrical generator device, and any other electrical power source. The power delivery surface delivers power to the electronic device wirelessly. The power delivery surface may deliver power via a plurality of contacts on the electrical device conducting electricity from the power delivery surface. The electrical device may be mobile device. Each contact may be shaped to improve power delivery reliability. The power delivery surface may further include circuitry to protect against accidental electrocutions.

Abstract: A holder with a device for holding a flexible circuit board is provided. The holder comprises at least one further device for holding at least one component such that the component may be electrically connected to or disconnected from the circuit board.

Abstract: A contact device is provided, the device having at least a first contact region for electrical connection to an electric line and at least a second contact region for electrical connection to a flexible printed circuit board other contact medium which may damaged by repeated soldering. The first contact region and the second contact region are electrically connected. Between the first contact region and the second contact region, a third region is provided which has a lower thermal conductivity per unit length than the first contact region and/or the second contact region.

Abstract: The present invention is to provide an optical transceiver that installs a bi-directional optical sub-assembly. The bi-directional sub-assembly is installed within the transceiver and fixed by the holder with a pair of legs put the sub-assembly therebetween. By press-fitting these legs into respective pockets provided in the side of the transceiver, the sub-assembly is to be fixed with the housing. To press-fit the holder completes the fixing and the positioning of the sub-assembly at the same time.

Abstract: A mount structure having a substrate, a connector secured to the substrate, and a flexible printed wiring board electrically connected to the connector and spaced apart from the substrate. The flexible printed wiring board is positioned below the connector and separated from the connector by a distance greater than a thickness of the substrate.

Abstract: An aspect of the present invention provides an electrical connector in which assembly of a connecting terminal is easily confirmed, a variation in support strength is not generated, and contact reliability is enhanced. In the electrical connector, a first insertion hole and a second insertion hole are made on the same straight line in both side faces facing each other in a base, a support contact piece of a first connecting terminal and a second connecting terminal are laterally inserted into the first insertion hole and the second insertion hole respectively, and an operation lever is rotatably attached to a side face on one side of the base while a front end portion of an FPC is inserted from an opening formed in a side face on the other side of the base.

Abstract: According to some embodiments, a connector to receive a memory module includes a first row of a first plurality of interconnect ends, a second row of a second plurality of interconnect ends adjacent to the first row, and a third row of a third plurality of interconnect ends adjacent to the second row. An interconnect end of the first plurality of interconnect ends, an interconnect end of the second plurality of interconnect ends, and an interconnect end of the third plurality of interconnect ends may be substantially aligned.

Abstract: A compressible electrical contact is disclosed. The compressible electrical contact may include a nose portion, a corrugated portion and a tail portion. The tail portion may extend from a first end of the corrugated portion and the nose portion may extend from an opposite end of the corrugated portion. The corrugated portion may define a first surface and a second surface opposite the first surface. The first and second surfaces may have a width. The corrugated portion may also have a third surface extending between the first and second surfaces and a fourth surface opposite the third surface. A plurality of corrugations may be formed in the third and fourth surfaces of the corrugated portion wherein a first corrugation may extend at least partially between an upper portion and a lower portion of the nose portion.

Abstract: A compressible electrical contact is disclosed. The compressible electrical contact may include a nose portion, a corrugated portion and a tail portion. The tail portion may extend from a first end of the corrugated portion and the nose portion may extend from an opposite end of the corrugated portion. The corrugated portion may define a first surface and a second surface opposite the first surface. The first and second surfaces may have a width. The corrugated portion may also have a third surface extending between the first and second surfaces and a fourth surface opposite the third surface. A plurality of corrugations may be formed in the third and fourth surfaces of the corrugated portion.

Abstract: A housing includes a plurality of contacts has a flat plate-shaped fitting portion projecting from a body portion to fit to a mating connector. The fitting portion has first and second main surfaces that are opposite each other and a pair of side surfaces connecting between those main surfaces. The contacts each have a contact portion disposed on the first main surface. The fitting portion is provided with a metal cover portion. The metal cover portion extends along a periphery of the fitting portion to cover the second main surface and the pair of side surfaces.

Abstract: A three-dimensional die configuration for mounting electronic components to a circuit board includes a circuit board having at least one circuit board die, a first electronic component mounted at the circuit board die and a first substrate member including a first surface electrically connected to the first chip. The three-dimensional die configuration further includes a double-sided land grid array having a first surface electrically connected to a second surface of the first substrate member. A second substrate member is electrically connected to a second surface of the double-sided land grid array. A second electronic component is electrically connected to a second surface of the second substrate member. A thermal interface member abuts the second chip and is covered by a cap member. The resulting three-dimensional die configuration establishes a multiple electronic component mounting arrangement having a footprint of a single electronic component.

Abstract: An exemplary flexible printed circuit board (2) includes a wiring layer (21). The wiring layer includes a number of conductive lines (211). Each of the conductive lines includes a finger (213), a line portion (212) and a junction portion (214) between the finger and the line portion. A width of the finger is greater than a width of the line portion, a width of the junction portion gradually changes from the width of the line portion to the width of the finger. The flexible printed circuit board has high reliability.

Abstract: A thin multichip module comprises: a foldable frame comprising two rigid, substantially planar members capable of being folded together about a selected fold axis to form a substantially closed structure; a flex circuit having a plurality of integrated circuit chips disposed thereon, the flex circuit bonded to at least one of the planar members over at least a portion of each of their respective surfaces; and, electrodes on the module configured to be accessible to an external socket after the frame is closed. A method for making a thin multichip module comprises the steps of: a. attaching integrated circuit chips to a flex circuit; b. bonding the flex circuit to a foldable frame comprising two rigid, substantially planar members capable of being folded together about a selected fold axis to form a substantially closed structure; and, c. folding the frame approximately 180° about the fold axis.

Abstract: A sensor interconnect assembly has a circuit substrate. An emitter portion of the substrate is adapted to mount emitters. A detector portion of the substrate is adapted to mount a detector. A cable portion of the substrate is adapted to connect a sensor cable. A first group of conductors are disposed on the substrate electrically interconnecting the emitter portion and the cable portion. A second group of conductors are disposed on the substrate electrically interconnecting the detector portion and the cable portion. A decoupling portion of the substrate disposed proximate the cable portion substantially mechanically isolating the cable portion from both the emitter portion and the detector portion so that sensor cable stiffness is not translated to the emitters or the detector.

Abstract: An interconnection structure includes two staggered contact rows of evenly spaced contacts. Each contact row extends along a first direction. The interconnection structure further includes conductive lines extending along a second direction that intersects the first direction. The interconnection structure further includes intermediate contacts, where each intermediate contact is in contact with one of the contacts and one of the conductive lines.

Abstract: A device includes a chassis and a flexible printed circuit. The flexible printed circuit has a terminal portion which is disposed so as to overlap with a mounted area of a circuit board mounted on a surface of the chassis. The device includes a connection auxiliary member which is disposed on the surface of the chassis at a position close to the terminal portion. The connection auxiliary member includes a fixed portion fixed to the surface of the chassis and a deformed portion connected to the fixed portion. The deformed portion deforms so that a part thereof rises from the surface of the chassis by pushing the deformed portion toward the fixed portion to lift up the terminal portion of the flexible printed circuit from the surface of the chassis.

Abstract: An intercom adapter used for selecting optionally one of three popular in-place residential wiring systems, in which two switches, each with two circuit-selecting contacts provide four permutations for selecting a circuit compatible for the in-place residential wiring system, to thereby reduce inventory to only the one switch-operated adapter.

Abstract: A connecting configuration for a flexible wired circuit board includes a first terminal member, a second terminal member, and a flexible wired circuit board having a conductive pattern for electrically connecting the first terminal member and the second terminal member. The first terminal member and the second terminal member are provided such that at least one of the terminal members is linearly movable to be adjacent to and apart from the other terminal member. The flexible wired circuit board is provided to be wound or twisted in the middle of the moving direction.

Abstract: An electrical connector for connecting a flexible printed circuit, comprising: a housing comprising a base portion and a mating portion extending forwardly from the base portion; a plurality of electrical contacts received in the housing; and an actuator pivotally mounted to the housing for rotating movement between an opened position and a closed position, the actuator comprising a flat member, a pair of supporting mechanism each integrally formed on opposite ends of the flat member, and an arrangement provided adjacent to the supporting mechanism limiting pivotal movement of the actuator when the actuator in the opened position.

Abstract: An exemplary flexible printed circuit board (2) includes a wiring layer (21). The wiring layer includes a number of conductive lines (211). Each of the conductive lines includes a finger (213), a line portion (212) and a junction portion (214) between the finger and the line portion. A width of the finger is greater than a width of the line portion, a width of the junction portion gradually changes from the width of the line portion to the width of the finger. The flexible printed circuit board has high reliability.

Abstract: A low insertion force multichip in-line module comprises: a substantially rigid frame; a flex circuit having a plurality of integrated circuit chips disposed thereon, the flex circuit having contacts at least partially exposed along one edge of the frame; and, a compliant layer disposed between the exposed flex circuit and the rigid frame, whereby controlled deformation of the compliant layer enhances electrical continuity between the contacts and corresponding external electrical pins.

Abstract: In one embodiment, a package-to-package stack is assembled comprising a first integrated circuit package, and a second integrated circuit package which are mechanically and electrically connected using an interposer and a substrate folded around the interposer. Other embodiments are described and claimed.

Abstract: The present invention is directed towards a flexible flat cable of a vehicular clockspring whose conductors are directly attached to the contacts of a mounting header. The flat cable comprises a series of conductors “printed” in-between a pair of insulating layers. The conductors are directly connected to the contacts of a mounting header, which partially form the connection module of a clockspring. Other devices or cables within the vehicle can than quickly mate to the clockspring connection module, via a corresponding connector. This method of termination is in contrast to prior art clockspring cables which typically weld their cable conductors to rigid printed circuit boards or overmolded metallic insert grids.

Abstract: A sensor interconnect assembly has a circuit substrate. An emitter portion of the substrate is adapted to mount emitters. A detector portion of the substrate is adapted to mount a detector. A cable portion of the substrate is adapted to connect a sensor cable. A first group of conductors are disposed on the substrate electrically interconnecting the emitter portion and the cable portion. A second group of conductors are disposed on the substrate electrically interconnecting the detector portion and the cable portion. A decoupling portion of the substrate disposed proximate the cable portion substantially mechanically isolating the cable portion from both the emitter portion and the detector portion so that sensor cable stiffness is not translated to the emitters or the detector.

Abstract: A circuit board for receiving and operably connecting a plurality of electrical components generally comprises: a flexible substrate of a predetermined length and having a first lateral edge and a second lateral edge; a conductive trace applied to the flexible substrate; and a plurality of integral tabs arrayed along the first lateral edge, one or more electrical components being operably connected to the conductive trace at a respective tab, and wherein each tab can be manipulated from a first position in which the tab is aligned with the remainder of the substrate to a second position in which the tab is oriented at an angle relative to the remainder of the substrate.

Abstract: In a state before TCPs are bonded under thermocompression, the pitch between a board side terminal group located at the outermost end and an adjacent board side group thereto is set to be smaller than predetermined pitches under the TCPs are bonded under thermocompression, thereby suppressed is the positional displacement between each second tape side terminal group and each board side terminal group due to extension of board main bodies of the PCBs when TCPs are bonded under thermocompression.

Abstract: An electrical connector adapted for connecting a camera module to a printed circuit board, at least comprising: a lower shield having a bottom wall, a plurality of sidewalls extending from the bottom wall, and a receiving space defined between the bottom wall and the sidewalls, the receiving space has a supporting surface. A flexible printed circuit placed upon the supporting surface for electrically connecting the camera module. An upper shield secured to the lower shield and comprising a top wall, and a plurality of side walls extending from the top wall, said at least one of the side walls defining a second plate element horizontally extending from the bottom end of the side wall, and at least one assembling hole formed in the second plate element for assembling the electrical connector in the printed circuit board.

Abstract: A connecting device of a flexible printed circuit board has a reinforced backlight FPC board, is free from bad contact resulting from insufficient insertion of a terminal portion of a flexible printed circuit board into a connector, and ensures good connection without leaving contaminants, scratches, or the like on contacts of the terminal portion. The connecting device of a flexible printed circuit board has a terminal portion having a contact formed as a printed conductor in a tip end portion of a film-form flexible printed circuit board, and a connector having an insertion slot into which the terminal portion is inserted and a contact fitted inside the insertion slot and connected to the contact of the terminal portion.

Abstract: An exemplary flexible printed circuit (20) includes a primary body (210) and a secondary body (220). The primary body includes a primary connection portion (211), and a primary engaging portion. The secondary body includes a secondary connection portion (221) and a secondary engaging portion (223). The primary body and the secondary body are electrically connected by connecting the primary engaging portion and the secondary engaging portion together.

Abstract: An electrical connector for providing a watertight electrical connection between a flat, single or multi-traced, rigid and/or flexible printed circuit and a separate electronics unit. The electrical connector is comprised of a plug having one or more keyhole-shaped slots which serve to mechanically secure the connection between the one or more traces of the circuit and one or more fixed pins on the body of the separate electronics unit. The plug is placed over the one or more pins such that the pins are inserted up through the wider portion of the slots and in a push or pull action, the pins are slid into the narrower portion of the slot such that the pins are locked into place. The conductive traces are then secured into contact with the electrical contacts of the separate electronics device.

Abstract: The disclosure is directed to flexible boards, electrooptic devices having flexible boards, and electronic devices. In one example, wires are disposed longitudinally along the length of a flexible board. Terminals are arranged laterally across the width of the flexible board near an end of the flexible board, the terminals being electrically connected to the wires. Plating lead wires are electrically connected to the terminals and extend longitudinally from the terminals to a lateral edge of the flexible board. The width of the plating lead wires is less than the width of the wires. In certain embodiments, at least a portion of the terminals are alternatingly displaced on the flexible board in a staggered manner. This abstract is intended only to aid those searching patents, and is not intended to be used to interpret or limit the scope or meaning of the claims in any manner.

Abstract: A flexible wiring member, which is capable of being wound around a wire harness, is provided with joint-side terminals 14a, which are capable of being fitted with wire-side terminals, and the flexible wiring member includes a connection circuit for electrically connecting specified joint-side terminals in the joint-side terminals 14a. Or, a plurality of joint-side terminals are previously held in the insulation housing, and these joint-side terminals are connected with a common flexible wiring member.

Abstract: An assembly of a cable and a flexible print circuit includes a flexible print circuit, a first joining element joined to the flexible print circuit and having a profile similar thereto, and at least one cable fixed to the first joining element. A gap is formed between the first joining element and the flexible print circuit.