Abstract: An exposure apparatus includes: a board that is mounted with a light-emitting element; an optical member that images light from the light-emitting element; and a housing that includes: a main body portion; a first protruding portion that protrudes from the main body portion to fix the board and is formed with a liquid crystal polymer flown into from the main body portion when the housing is molded; and a second protruding portion that protrudes from the main body portion to fix the optical member to a different direction from a protruding direction of the first protruding portion and is formed with the liquid crystal polymer flown into from the main body portion when the housing is molded.

Abstract: An exposure device includes a substrate, an optical member, and a housing. The substrate extends in one direction, and is mounted with light emitting elements. The optical member extends in the one direction, and images light from the light emitting elements on a target object. The housing includes a body portion and a pair of holding portions. The body portion extends in the one direction, and is attached with the substrate. The holding portions are formed integrally with the body portion, hold therebetween the optical member in a perpendicular direction perpendicular to the one direction, and are formed with separating regions that separate in the perpendicular direction from opposite end portions in the one direction of the optical member.

Abstract: A shielded cable connection structure includes a plurality of shielded cables. Each of the shielded cables has a center conductor, a shielding conductor, and an insulative jacket. A metal grounding member has at least two rows of mutually parallel substantially comb shaped teeth. The comb shaped teeth in each of the rows have a wire receiving portion formed there between that receives at least one of the shielded cables. A holding member mates with the metal grounding member to clamp the shielded cables between the metal grounding member and the holding member. The center conductor is directly clamped by the comb shaped teeth in one of the rows, and the shielding conductor is clamped through the insulative jacket by the comb shaped teeth in the other row.

Abstract: A shielded cable connection structure includes a plurality of shielded cables. Each of the shielded cables has a center conductor, a shielding conductor, and an insulative jacket. A metal grounding member has at least two rows of mutually parallel substantially comb shaped teeth. The comb shaped teeth in each of the rows have a wire receiving portion formed there between that receives at least one of the shielded cables. A holding member mates with the metal grounding member to clamp the shielded cables between the metal grounding member and the holding member. The center conductor is directly clamped by the comb shaped teeth in one of the rows, and the shielding conductor is clamped through the insulative jacket by the comb shaped teeth in the other row.

Abstract: Cards are enabled to be removed from a card edge connector having an ejecting mechanism, even in cases that fingers, jigs, and the like are unable to access an ejector thereof. The card edge connector is constituted by: an insulative housing having a slot; electrical contacts, provided in the slot, for electrically contacting conductive pads of a card, which is inserted into the slot; and the ejector, mounted only at one end of the insulative housing in its longitudinal direction, for ejecting the card. The card edge connector is constructed such that when a second edge of the card, opposite from a first edge at which an engaging protrusion is provided, is pulled in a direction substantially opposite the insertion direction of the card, the card rotates about the first edge, while the engaging protrusion urges a stopper to rotate the ejector, thereby disengaging the stopper from the engaging protrusion.

Abstract: The present invention provides an inexpensive card connector assembly which is used for the connection with two cards having mutually different transmission speeds, which can maintain transmission characteristics, and which is therefore suitable for high-speed transmission. The card connector assembly comprises first and second card connectors that are stacked for the connection with two cards having mutually different transmission speeds, and transmission paths for connecting the first and second card connectors to a circuit board. The transmission paths comprise a plurality of first and second terminal parts that respectively extend from the first and second card connectors, and a rigid board to which the first and second terminal parts are connected.

Abstract: The present invention provides a card connector assembly that is used for the connection with two cards having mutually different transmission speeds and that can maintain transmission characteristics while minimizing the amount of an expensive FPC used. The card connector assembly comprises stacked first and second card connectors for connection with two cards having mutually different transmission speeds, and transmission paths for connecting the first and second card connectors to a circuit board. The transmission path for the first card connector to which a card with a relatively high transmission speed is to be connected is constructed from an FPC to which the first card connector is connected. The transmission path for the second card connector to which a card with a relatively low transmission speed is to be connected comprises terminal parts that extend from the second card connector, and a rigid board to which the terminal parts are connected.

Abstract: Cards are enabled to be removed from a card edge connector having an ejecting mechanism, even in cases that fingers, jigs, and the like are unable to access an ejector thereof. The card edge connector is constituted by: an insulative housing having a slot; electrical contacts, provided in the slot, for electrically contacting conductive pads of a card, which is inserted into the slot; and the ejector, mounted only at one end of the insulative housing in its longitudinal direction, for ejecting the card. The card edge connector is constructed such that when a second edge of the card, opposite from a first edge at which an engaging protrusion is provided, is pulled in a direction substantially opposite the insertion direction of the card, the card rotates about the first edge, while the engaging protrusion urges a stopper to rotate the ejector, thereby disengaging the stopper from the engaging protrusion.

Abstract: The present invention provides an inexpensive card connector assembly which is used for the connection with two cards having mutually different transmission speeds, which can maintain transmission characteristics, and which is therefore suitable for high-speed transmission. The card connector assembly comprises first and second card connectors that are stacked for the connection with two cards having mutually different transmission speeds, and transmission paths for connecting the first and second card connectors to a circuit board. The transmission paths comprise a plurality of first and second terminal parts that respectively extend from the first and second card connectors, and a rigid board to which the first and second terminal parts are connected.

Abstract: The present invention provides a card connector assembly that is used for the connection with two cards having mutually different transmission speeds and that can maintain transmission characteristics while minimizing the amount of an expensive FPC used. The card connector assembly comprises stacked first and second card connectors for connection with two cards having mutually different transmission speeds, and transmission paths for connecting the first and second card connectors to a circuit board. The transmission path for the first card connector to which a card with a relatively high transmission speed is to be connected is constructed from an FPC to which the first card connector is connected. The transmission path for the second card connector to which a card with a relatively low transmission speed is to be connected comprises terminal parts that extend from the second card connector, and a rigid board to which the terminal parts are connected.

Abstract: Contact tie-ins (68, 70, 72) are arrayed in two rows at the bottom (20) of the housing (10) of tape-carrier type electric connector (1). Tie-ins (68) and (70) are located nearly at the center line of the bottom (20), and tie-ins (72) are arranged in a row located at some distance from the center line. Tie-ins (68) which also play the role of the posts are longer than tie-ins (70) and (72), and they are attached to the carrier tape.

Abstract: An electrical connector (1,1') having multiple contacts (40') are arranged in the insulating housing (10) at a predetermined pitch and have a J-shaped connecting section (44). When an external force (F), which tends to pull a flat cable (4) in a direction away from connector (1) is applied to the flat cable (4), connecting sections (44) of all contacts (40) are bent and their back surfaces (56) are pressed against the inner wall (30) of the insulating housing (10). This pressure generates resistance from the inner wall (30) resulting in a strong frictional force between connecting sections (44) and flat cable (4), thus reliably securing cable (4) in the connector housing.

Abstract: An electrical connector (10) includes a plastic housing (12) of a configuration to fit through an aperture (32) of a printed circuit board (30) having circuits (34) on the undersurface (33) thereof with the connector housing having wing portions (14) carrying contact portions (26) adapted to engage the circuits of the underside of the printed circuit board and be soldered thereto to minimize the overall height of the assembly formed of the connector and board.

Abstract: A pair of support pins (16) extending outwardly from a connector housing (10) has been disclosed. The pins (16) are attached in the housing (10) and do not carry an electrical current but instead are used to retain the electrical connector on carrier tape and to support the connector on a circuit board (30) during soldering.

Abstract: An electrical connector (10,20,30,40) having an insulating housing (11,21,31,41) and electric contacts (14,24,34,44) therein has been disclosed. The electric contacts (14,24,34,44) are individually formed by removing selected parts (53,55,56,58,59,61,62) from stamped electric contact elements (50). The housing (11,21,31,41) includes cavities (12,32) opening on a front surface and cavities (22,42) opening on a back surface.

Abstract: An electrical connector (21) comprises a dielectric housing (20) having apertures in which contact sections (6) of electrical contacts (2) are secured while termination sections (10) of the contacts (2) extend at a 45 degree angle with respect to the contact sections (2) and along a bottom surface (23) of the housing (20) so that the termination sections (10) are parallel and extend outwardly from at least one of the side walls of the housing (20) for connection to conductive members on a circuit board. Connector (40), 40a-c) is provided with contacts (2a) having tines (34) for disposition in holes (32) in a circuit board (31) for connection to conductive areas on a bottom surface (31") of the board while termination sections of contacts (2) are connected to conductive areas on an upper surface (31') of the board (31).

Abstract: A hinged electrical connector comprises connector members (1, 2) mounted onto circuit boards (11a, 11a) and hingedly connected together by shafts (4) and recesses (6). Receptacle contact sections (8a) of receptacle contacts (8) in connector member (2) have low-pressure contact members (22) in electrical engagement with outer ends (13) of tab contact sections (7b) of tab contacts (7) in connector member (1) when the circuit board (11a, 11b) are parallel to one another (FIG. 7A). High-pressure contact members (23) of the receptacle contact sections (8a) are in electrical engagement with inner sections (13') of the tab contact sections (7b) when the circuit boards (11a, 11b) are at a right angle with respect to one another (FIG. 7C).

Abstract: A hinged electrical connector comprises a receptacle connector (RC) and a tab connector (TC) that are hingedly connected together by hinge members (3, 4, 5a, 6), the connectors having coplanar receptacle contact sections (12) of receptacle contacts (7) electrically engaged with tab contact sections (14) of tab contacts (8) and conductor-engaging sections (9,10) electrically engaged with conductive areas of circuit boards (11a, 11b) enabling the boards to be moved between angular positions and maintained thereat.