Abstract: A board-edge plug connector establishes an electrical connection between at least one electrical conductor and at least one printed circuit board. The board-edge plug connector has a housing which accommodates at least one contact element and has at least one cavity which receives both the conductor and also the printed circuit board at least partially in the housing. The contact element both encloses and makes contact with the printed circuit board in a spring-elastic manner and also clamps the conductor against the housing and makes contact with it in a spring-elastic manner.

Abstract: A circuit card assembly is described. The circuit card assembly adapts a host circuit card assembly of a host device with an expansion card. By such adaption, the host device may communicate with an access point of an avionics network. The circuit card assembly includes an interface for receiving power from the host circuit card assembly. The circuit card assembly then continuously and selectively provides power to a second interface based on the availability of aircraft power. The second interface receives the expansion card. The circuit card assembly also includes one or more coaxial RF connectors for receiving modulated signals from the expansion card. The circuit card assembly also includes an antenna which transmits radio waves based on the modulated signals. A system for communication to an access point of an avionics network includes the circuit card assembly.

Abstract: Various connector and sensor assemblies are described. In some embodiments, the connector and sensor assembly comprises a connector and a sensor assembly. The connector can have an opening that has a first surface and second surface that are opposite each other. The connector can have a plurality of retractable electrical connectors that extend from the first surface and a lock structure that is located on the second surface. The sensor assembly is comprised of a body portion and a proximal end. The proximal end has a top side and a bottom side. The top side includes a plurality of electrical contacts that is configured to interact with the plurality of retractable electrical connectors. The bottom side includes a key structure that is configured to interact with the lock structure in the connector.

Abstract: An electrical connector comprising a terminal module and a housing. The terminal module comprises a plurality of terminals. The housing comprises an accommodating groove in which the terminal module is disposed. The accommodating groove comprises a first groove wall and a second groove wall opposite to the first groove wall. The terminal module is disposed between the first groove wall and the second groove wall. A wall surface of the first groove wall and a wall surface of the second groove wall are disposed close to a structural contour of the plurality of terminals. Since the groove wall is designed as a wall surface close to the structural contours of the plurality of terminals, the dielectric constant of the groove wall can be greater than that of the air. In this way, the relative dielectric constant around the plurality of terminals would be increased to reduce the impedance.

Abstract: An electric connector set includes a first engaging terminal having spring engagement of a first projecting terminal of a first connector and a first recessed terminal of a second connector, a second engaging terminal having spring engagement of a second projecting terminal of the first connector and a second recessed terminal of the second connector, and disposed in a first direction, and a wall-shaped terminal disposed between the first and second engaging terminals in the first direction, extends along a second direction crossing the first direction and a fitting direction over a region including an outer shape of a projection region in the first direction where the first projecting and recessed terminals are spring-engaged, and has a similar height as the electric connector set. Locking mechanisms to retain connector engagement may be used and may be formed of a same member as the wall shaped terminal.

Abstract: A connector assembly comprises a circuit board having a front side and a back side, with a connector installed on the front side of the circuit board. A plurality of first welding pads are formed on the front side of the circuit board, and a plurality of second welding pads are formed on the back side of the circuit board. A plurality of wires are connected to the circuit board, with a first portion thereof connected to the first welding pads and a second portion thereof connected to the second welding pads. Each of the plurality of wires extend away from the circuit board from above the front side of the circuit board.

Abstract: To provide an electrical connector with flat-type conductors, a counterpart electrical connector, and an electrical connector assembly, in which the size of the connector is not increased in the thickness direction of the flat-type conductors when using two flat-type conductors disposed in parallel opposite each other.

Abstract: An electrical connector includes a body and multiple conductive terminals. The body has an insertion slot. Each conductive terminal has a contact portion entering the insertion slot and a conductive portion passing downward beyond a bottom surface of the body. Each side of the insertion slot has first terminal groups and second terminal groups. The conductive portions of each first terminal group are located away from the insertion slot relative to the conductive portions of each second terminal group. The conductive portions are provided in four rows in a lateral direction. The conductive terminals include signal terminals and ground terminals. The circuit board has an adjusting hole and four rows of connecting points corresponding to the conductive portions. Each row of the connecting points include multiple signal connecting points and multiple ground connecting points. The adjusting hole is located between two signal connecting points in two adjacent rows.

Abstract: In some implementations, a network device includes a housing and a set of switch cards within the housing and including a first set of connectors. A set of line cards within the housing includes a second set of connectors. The set of line cards are oriented orthogonally to the set of switch cards. A first set of power supplies and a second set of power supplies are in the housing. A midplane includes a plurality of circuit board assemblies arranged within the housing between the set of line cards and the first and second sets of power supplies to allow air to flow through the set of line cards to the set of switch cards, first set of power supplies, and second set of power supplies.

Abstract: An electrical connector includes an insulative housing, and plural rows of contact modules therein. Each contact module includes plural contacts integrally formed within an insulator/wafter which extends in a longitudinal direction. In each contact module, each contact includes a main body with opposite contacting arms on upper and lower sections wherein the contacts in the same contact carrier are originally linked with the neighboring contacts around lateral sides of the main body for insert-molding consideration, and the corresponding linking sections are removed for disconnecting the neighboring the contacts after insert-molding to form the final complete contact module. Each contacting arm forms a hole with two spaced beams by two sides of the hole. The contact may further include a holding tab exposed in the hole so as to allow a gripping tool to be engaged thereon for assembling the contact module into the channel of the housing.

Abstract: A board connector (20) is provided with first terminals (30), second terminals (40) and a housing (21) including a wall (23) for holding the first and second terminals (30, 40). The first terminal 30 includes a first extending portion (35) extending out from the wall (23), and the second terminal 40 includes a second extending portion (45) extending out from the wall (23). The first extending portion (35) includes a first connecting portion (38) that can be soldered to a land (12A) of a board (11). The second extending portion (45) includes a second connecting portion (49) that can be soldered to a land (12B) of the board (11) at a position more distant from the wall (23) than the first connecting portion (38) and a bent portion (48) is bent to approach the first connecting portion (38) at a position not overlapping the first connecting portion (38).

Abstract: An interface system for functional module and a functional module thereof are provided. The interface system for the functional module includes a main system and a plurality of functional modules. The main system has a mother board. Each of the functional modules has a circuit board, and at least one functional element disposed on the circuit board, and the functional element is an element having various functions and specifications. An expansion assembly is disposed between the mother board of the main system and the circuit board of any of the functional modules, and the expansion assembly is also disposed between the circuit boards of the functional modules. The main system is selectively and electrically connected to the functional modules through each of the expansion assemblies to be connected extendedly.

Abstract: An interconnection system that is safe, reliable and compact. Mating connectors include complementary projections. Terminals in each connector have opposed beams, with portions of the beams of each terminal embedded in adjacent projections. In mating connectors, the terminals are oriented 90 degrees with respect to each other, such that the terminals of one connector fit between beams of the other. Two beams of each terminal press on opposing sides of a mating terminal, creating four points of contact, for reliable operation. The projections extend beyond the distal tips of the terminals and preclude accidental contact between the terminals and a human finger. Contact force may be controlled by altering the shape of openings cut in the terminals near the base of the beams, enabling the terminals to be formed simply by stamping a sheet of metal and further enabling the beams to be short to provide a compact connector.

Abstract: The first type adaptor cable assembly has an inner connector equipped with a plug board derived from the FP5 for mating with the FP5 vertical receptacle connector, and an outer connector configured to be in compliance with the FP5 or QSFP-DD receptacle connector and disposed at a rear end of the cage for mating with the FP5 or QSFP-DD inserted into the cage. Notably, the connection between the inserted FP5 and QSFP-DD and the corresponding FP5 or QSFP-DD receptacle connector directly attached/linked to the adaptor cable, is same with the traditional connection between the inserted FP5 or QSFP-DD and the corresponding receptacle connector which is only mounted to the main/external printed circuit board without directly attachment to the cable.

Abstract: A circuit board design uses CMOS sensors for the tip section of a multi-viewing element endoscope. Side sensors and their optical assemblies are assembled to a common base board to save space. Individual base boards are separately constructed, inserted into grooves of a main base board, and are further connected to the main base board by means of flexible circuit boards.

Abstract: A connector is to be joined to a mating connector. The connector includes a terminal fitting including an electrical connection portion to be connected to a mating terminal of the mating connector, a housing including an insertion hole, the electrical connection portion inserted through the insertion hole and a rear holder attached to the housing such that the rear holder presses and holds the terminal fitting against the housing. The housing includes a reference surface to restrict the electrical connection portion, with a portion of the terminal fitting abutting the reference surface, from being further inserted into the insertion hole. The rear holder includes a pressing pin to press, when the rear holder is attached to the housing, the terminal fitting from a rear side of the terminal fitting such that the pressing pin is partially and plastically deformed and the terminal fitting is pressed against the reference surface.

Abstract: An interposer for a Peripheral Component Interconnect Express (PCI-e) host device and a PCI-e target device may include a plurality of linear repeaters to perform repetition or crosspoint switching of signals en route from the PCI-e host device to the PCI-e target device or from the PCI-e target device to the PCI-e host device; and a plurality of interposer components, the plurality of interposer components to receive the signals from the plurality of linear repeaters or provide the signals to the plurality of linear repeaters, and at least one interposer component, of the plurality of interposer components, being associated with a resistance of at least 50 ohms. Thus, the interposer may be compliant with a PCI-e protocol, such as the PCI-e Gen 4 protocol.

Abstract: To eliminate signal loss and sources of signal attenuation, a connection methodology is utilized which enables high-speed signals to be directly communicated from particular integrated circuits housed on a printed circuit board, to other locations within a system. More specifically, a signal escape strategy directly connects a high-speed cable to a point on the circuit board which is very close to the integrated circuit itself. A back-side connection methodology is utilized so that electrical signals pass directly from the integrated circuit through a via, to a connection point on the backside of the circuit board. To accommodate this connection, a specially designed interposer and related paddle cards are utilized so the high-speed communication cable can be easily attached.

Abstract: The present disclosure discloses an electrical connection device and a plug assembly, the electrical connection device comprises a receptacle assembly and a plug assembly. The receptacle assembly comprises a cage and a connector. The plug assembly comprises an outer housing and a communication module provided in the outer housing. The outer housing has a main body which can be inserted into the cage along the mating direction to be mated with the connector. The receptacle assembly is provided with at least one guide groove extending along the mating direction, and the outer housing of the plug assembly is provided with at least one guide block protruding from the main body to correspond to the at least one guide groove, when the plug assembly is mated with the receptacle assembly, the at least one guide block enters into the corresponding guide groove along the mating direction.

Abstract: The present disclosure provides a system and method for enabling a flexible PCIe topology in a computing system. The flexible PCIe topology can allow a user to adjust PCIe connections between CPUs and components of the computing system based upon a specific application. In some implementations, the computing system comprises a plurality of CPUs, a plurality of GPUs or Field-Programmable Gate Arrays (FPGAs), a plurality of PCIe switches, and a plurality of network interface controllers (NICs). In some implementations, the computing system comprises a switch circuit to connect the plurality of CPUs, the plurality of PCIe switches, and the plurality of NICs. The switch circuit comprises a plurality of inputs and a plurality of outputs to connect the plurality of CPUs, the plurality of PCIe switches and the plurality of NICs. Connection routes within the switch circuit can be adjusted to set a specific PCIe topology of the computing system.

Abstract: A card edge connector includes a contact assembly received in a cavity of a housing. The contact assembly has a contact positioner holding upper and lower contacts. The contact positioner has an upper wall with upper contact channels holding mating beams of the upper contacts and a lower wall with lower contact channels holding mating beams of the lower contacts. A positioner card slot is defined between the walls receiving a card edge of a module circuit board. The upper wall has pre-load beams in the upper contact channels engaging the mating beams of the upper contacts to pre-load the upper contacts in an inward biasing direction and the lower wall has pre-load beams in the lower contact channels engaging the mating beams of the lower contacts to pre-load the lower contacts in an inward biasing direction.

Abstract: An electrical connector (100) includes an insulative housing (1), and a number of contacts received therein. The contacts include a pair of first and second grounding contacts (212, 222), and a pair of first and second signal contacts (211, 221). Each of the first signal and grounding contacts includes a first contact portion (213), a first mounting portion (214), a first horizontal portion (215), and a first connecting portion (216). Each of the second signal and grounding contacts includes a second contact portion (223), a second mounting portion (224), and a second horizontal portion (225). A first distance (d1) between the first connecting portion and the second mounting portion is greater than a second distance (d2) between the first and second horizontal portions, and is also greater than a third distance (d3) between the first and second mounting portions.

Abstract: A DIN rail device mount system includes a base, a module and a locking mechanism. The base is configured to be mounted on a DIN rail. The base defines a receiver slot. The module is configured to be removably mounted in the receiver slot to form a DIN rail mount assembly. The locking mechanism includes: a lock member having opposed proximal and distal ends and including an integral lock member latch feature on its distal end, wherein the lock member is pivotally connected to the base at its proximal end to pivot between a closed position and an open position; and an integral module latch feature on the module.

Abstract: Provided is a plug and a connector assembly, which belong the technical field of connectors. The plug includes an insulating body, a cable and a circuit board. The insulating body includes a body part and a mating part which extends forwardly from the body part. The cable and the circuit board are electrically connected. The circuit board has an inserting part which protrudes forwardly out of the mating part. An outer side of the mating part is provided with a limiting groove and a guiding wall disposed within the limiting groove, and the guiding wall is adjacent to the inserting part and is capable of guiding insertion of the plug into a socket and preventing the plug from shaking in an up-down direction and/or in a left-right direction when the plug is inserted into the socket. The connector assembly includes the plug and the socket.

Abstract: A terminal module comprises a connecting element having second and third slots; a second terminal unit disposed at the second slots; a third terminal unit disposed at the third slots and opposite the second terminal unit; a first terminal module disposed beneath the connecting element to clamp the second terminal unit and comprising a first terminal unit; and a fourth terminal module disposed on the connecting element to clamp the third terminal unit and comprising a fourth terminal unit opposite the first terminal unit. The second and third terminal units are disposed behind the first and fourth terminal units. A ground terminal and two signal terminals are disposed at one or two sides of the first, second, third and/or fourth terminal units. The ground terminal is the outermost one. An electrical connector is provided and comprises a casing and the terminal module disposed therein.

Abstract: A device is described. The device includes a daughterboard having a first distinct side and a second distinct side. A first connector on the first distinct side is attached to a first baseboard. A second connector on the second distinct side is attached to a second baseboard. A method for attaching a daughterboard to a second device is described. Connectors are included on opposing distinct sides of the daughterboard. The second device includes baseboards mechanically secured in parallel by lead screw actuators. As part of the method, the lead screw actuators are actuated so as to move the baseboards away from each other. A first connector is attached to one of the baseboards. The lead screw actuators are again actuated so as to move the baseboards toward each other until a second connector is brought into attachment with the other of the baseboards.

Abstract: A connector is attachable to an object having a lock portion. The connector includes a housing and a frame. The housing has a press portion and a support portion. The housing is fixed to the object under an attached state where the connector is attached to the object. The frame has a supported portion, a pressed portion and a locked portion. When the connector is in the attached state, the supported portion is positioned between the pressed portion and the locked portion in a front-rear direction and is supported from below by the support portion in an up-down direction perpendicular to the front-rear direction. Under the attached state, the pressed portion is pressed by the press portion from above. Under the attached state, the locked portion applies a force to the lock portion from below.

Abstract: An angled circuit board connector includes a unitary connector block having first and second board-contacting faces. The first and second board-contacting faces are arranged relative to each other at an operative angle. The connector block includes a block body. The first and second board-contacting faces face outward from the block body. A first connector port is located on the first board-contacting face. A second connector port is located on the second board-contacting face. A connector trace extends through at least a portion of the block body between the first and second board-contacting faces. The connector trace electrically connects the first and second connector ports.

Abstract: A method for solderless electrical press-fit contacting of electrically conductive press-fit pins in circuit boards include: providing a circuit board having a thickness, at least one electrical conductor path, and a contacting opening guided perpendicularly through the circuit board and having a metallized inner wall; providing an electrically conductive press-fit pin having a longitudinal axis and having a press-fit region suitable for press-fitting into the contacting opening and having a substantially round cross section; and press-fitting the press-fit pin into the contacting opening by applying onto the press-fit pin a force acting along the longitudinal axis of the press-fit pin, press-fitting being assisted by the application of ultrasound acting on the press-fit pin.

Abstract: A printed circuit board (PCB) support system includes a guide attachable to a housing of a computing assembly that includes a motherboard and a daughterboard, the guide including a locking assembly that includes a notch and a surface angled toward the notch and is biased to snap over a portion of a side edge of the daughterboard received into the notch; and a PCB support attachable to a surface of the motherboard, the PCB support including a cleft sized to support a bottom edge of the daughterboard.

Abstract: Electrical connectors that are mating compatible with the MicroTCA® standard and configured to be mounted to an underlying substrate are provided. Certain of the electrical connectors can be configured to be mounted to a substrate configured in accordance with the MicroTCA® press fit footprint. Additionally, electrical connectors that are mating compatible with the MicroTCA® standard and configured to be mounted to respective alternative footprints, and substrates configured in accordance with the respective alternative footprints are provided. The disclosed electrical connectors and corresponding substrate footprints can operate to transmit data at speed up to and in excess of 25 Gigabits per second.

Abstract: In a package process of backside illumination image sensor, a wafer including a plurality of pads is provided. A first carrier is processed to form a plurality of blind vias therein. The first carrier is adhered to the wafer so that the blind vias face to the pads correspondingly. A spacing layer is formed and a plurality of sensing components are disposed. A second carrier is adhered on the spacing layer. Subsequently, a carrier thinning process is performed so that the blind vias become the through holes. An insulating layer is formed on the first carrier. An electrically conductive layer is formed on the insulating layer and filled in the though holes to electrically connect to the pads. The package process can achieve the exact alignment of the through holes and the pads, thereby increasing the package efficiency and improving the package quality.

Abstract: A circuit board includes a substrate whereon a sunken portion is formed. The circuit board further includes a gold finger structure disposed inside the sunken portion. A height difference is formed between a top surface of the gold finger structure and a surface of the substrate substantially.

Abstract: Examples are disclosed for converting signals routed through a fabric assembly. In some examples, a connector housing may house a paddle card having a first edge portion coupled to a twin-axial cable having first signal pathways capable of routing first signals to/from a fabric controller integrated with a processor/processor package. The paddle card may have a second edge portion that may couple with an external fabric connector including a second plurality of signal pathways. In some examples, first signals received at the first edge portion may be converted to second signals following a coupling of the second edge portion with the external fabric connector. The second signals may then be routed via the second signal pathways included in and/or coupled with the external fabric connector. Other examples are described and claimed.

Abstract: Provided is a connector to be securely fixed on a board, especially, the connector having a high-strength shell prevented from detached from the connector. The connector has a mating portion, a plurality of the contacts, a holding member holding the contacts and a shell and to be connected with a mating connector in a front-back direction. The mating portion is positioned in forward part of the connector. The holding member is formed with a protrusive portion protruding backward. The protrusive portion is formed with a receiving portion. An edge of the shell is formed a stopper portion. The stopper portion and the receiving portion face to each other in the front-back direction. The contact has a contact-fixing portion fixed on the board. The shell has a shell-fixing portion fixed on the board. A distance between the shell-fixing portion and the mating portion is larger than another distance between the contact-fixing portion and the mating portion.

Abstract: A data storage connecting device includes a circuit board, a first connector, a second connector and a third connector. The circuit board has a first connecting end and a second connecting end. The first connector and a second connector are both disposed on the first connecting end and respectively at two sides of a long axis of the circuit board, a location of the second connector connecting with a data storage device being opposite to that of the first connector connecting with another data storage device. The third connector is disposed on the second connecting end for transmitting data from two data storage devices connected to the first connector and the second connector, respectively, via the circuit to a server device, or vice versa.

Abstract: A retention-extraction device is provided for a removable card in a chassis. The device includes an actuation rod having a cam slot, the actuation rod configured to provide linear movement along the length of the actuation rod, and an extraction lever operatively connected to a proximal end of the actuation rod and pivotally secured to the chassis. The device also includes a bell crank with a cam follower that is configured to ride in the cam slot and a latch hook that pivots between an open and closed position based on the motion of the bell crank. The linear movement of the actuation rod causes the extraction lever to apply a force to a portion of the card and causes the latch hook to pivot to an open position to allow removal of the card.

Abstract: An electronic structure (for example a reliability board or a cycling control module) has a body including a body portion insertable into a connector. A plurality of contact structures are provided on a side of the body portion, each contact structure comprising a first contact and a second contact spaced from the first contact, with the first and second contacts of each contact structure being aligned in the direction of insertion of the body portion into the connector. A corresponding second plurality of contact structures is provided on a side of the body portion opposite the first—mentioned side. These contacts connect with respective corresponding contacts of the connector.

Abstract: A device connects a computer network cable transceiver to a printed circuit board. The device includes a high-profile connector body that mounts to a printed circuit board. The height of the device above the printed circuit board is greater than the width of the device on the printed circuit board. The device has a receiving element that receives and electrically connects the network cable transceiver to an electrical connection element. The rotated aspect of this device controls the profile of the network cable transceiver that is inserted into the device. The electrical connection element is mechanically and electrically attached to the printed circuit board to enable data transfer to and from the network cable transceiver.

Abstract: A system is provided for protecting a signal within an electronic device. Such a system includes a connector and a printed circuit. The connector has a generally rectangular parallelepiped shape and includes: at its base, at least one solder termination corresponding to a contact region conveying the signal to be protected; and a slot for inserting a printed circuit. The printed circuit is housed in the insertion slot and shaped so that it covers the solder termination.

Abstract: A test card includes a substrate and a goldfinger structure disposed on a side of the substrate. The goldfinger structure includes a first conductive section and a second conductive section. The first conductive section is inserted into a slot of a socket for electrically connecting to the socket. The second conductive section is connected to the first conductive section in a separable manner, and the second conductive section is inserted into the slot of the socket for electrically connecting to the socket after the first conductive section is cut for separating from the second conductive section.

Abstract: A method of manufacturing a concave connector substrate includes: a step of preparing a guide substrate having a guide/holding region that guides a plate-shaped connector to a connection position and a cut portion; a step of arranging and aligning two wiring substrates, each having wiring lines and through hole connection portions that are electrically connected to the wiring lines, with both surfaces of the guide substrate, and applying an adhesive to a predetermined region of the guide substrate to bond the wiring substrates to the guide substrate; a step of bending a portion of the wiring substrate toward the inside of the cut portion of the guide substrate and bringing the wiring lines disposed in the bent portion into pressure contact with the inside of the cut portion; and a step of removing a section inside the cut portion to form the guide/holding region.

Abstract: A system for measuring an analyte of interest in a biological fluid includes a test strip for receiving a sample of the biological fluid having multiple contacts formed thereon. A test device includes a circuit board having multiple conducting strips. A connector assembly is fixed to the circuit board and receives the test strip as the test strip moves in an insertion direction to a test position. The connector assembly includes a connector assembly body and multiple conductors. Each of the conductors includes a conductor contact body fixedly connected to the connector assembly body, and a contact arm integrally connected to the conductor contact body and freely extending entirely in the insertion direction. The contact arm is deflected when directly contacted by one of the multiple contacts of the test strip.

Abstract: A board-to-board connector includes a receptacle connector and a plug connector. The receptacle connector includes a plurality of beam parts having a metal plate and an insulating layer formed on the metal plate and a plurality of conductive patterns formed on the insulating layer of the plurality of beam parts. The plug connector includes a beam contact part having a metal plate and an insulating layer formed on the metal plate and a plurality of conductive patterns formed on the insulating layer of the beam contact part. A beam projection is formed between the adjacent conductive patterns of the plug connector, and the beam projection is inserted between the adjacent beam parts of the receptacle connector when the receptacle connector and the plug connector are mated.

Abstract: A straddle mount electrical connector with fusible elements is provided. The electrical connector can include a connector housing including a housing body that supports element support members that define a receptacle configured to receive a complementary electrical component therein. Each element support member can support a respective plurality of fusible elements, and each fusible element can be connected to a respective electrical contact supported by the connector housing. The pluralities of fusible elements can define a mounting interface of the electrical connector. The mounting interface can be configured to receive printed circuit boards of varying thicknesses.

Abstract: A motherboard assembly includes a motherboard and an expansion card. The motherboard includes an expansion slot, a storage device interface, a power connector, and a central processing unit (CPU). The expansion slot includes a protrusion, first signal pins connected to the CPU, first power pins connected to the power connector. The expansion card includes a circuit board. A storage unit, a display unit, a power circuit, and a serial advanced technology attachment (SATA) connector connected to the storage unit and the storage device interface of the motherboard are all arranged on the circuit board. A notch is defined in a bottom edge of the circuit board, to receive the protrusion. An edge connector is arranged on a bottom edge of the circuit board and includes second power pins connected to the power circuit, and second signal pins connected to the display unit.

Abstract: A mounting apparatus for an expansion card includes a bottom plate, a circuit board, and mounting bracket. The bottom plate defines mounting hole. The circuit board is secured to the bottom plate, and a gap is defined between the bottom plate and the circuit board. The mounting bracket includes a base secured to the bottom plate. The base includes two positioning pieces and an elastically deformable mounting portion. The two positioning pieces are received in the gap, to prevent the mounting bracket from moving along a first direction substantially perpendicular to the bottom plate, and the elastically deformable mounting portion is engaged in the mounting hole, to prevent the mounting bracket from moving along a second direction substantially parallel to the bottom plate.

Abstract: A circuit board assembly includes a motherboard, a first daughterboard, and a first metal bar. Two ends of the first metal bar are respectively fastened to the motherboard and the first daughterboard, and are electrically connected between the motherboard and the first daughterboard. The first metal bar is supported between the motherboard and the first daughterboard, so as to position the first daughterboard separately over the motherboard and enable the first daughterboard to be substantially perpendicular to the motherboard.

Abstract: The invention relates to a modular assembly for fastening electronic modules carried on board an aircraft, characterized in that it comprises: a frame (10) having a more or less planar vertical front surface, comprising several mechanical fastening interfaces each intended for mechanically fastening an electronic module, at least one electronic module (80) comprising a mechanical fastening interface and which is attached to the front surface of the frame in suspended position via cooperation of the mechanical fastening interface of the said at least one electronic module with one of the mechanical fastening interfaces of the frame.

Abstract: A lighting module (1; 7; 11; 31; 41; 61; 71; 81; 91; 97; 109; 115), comprising: a circuit board (2), on which are mounted at least one component (3; 12; 22; 32; 42; L; 92; 99; 108; 116; 119) and at least one attachment element; (5; 98), wherein the at least one attachment element (5; 98) is fastened on the at least one component (3; 12; 22; 32; 42; L; 92; 99; 108; 116; 119) mounted on the circuit board (2) in a locking manner.