39results about How to "High precision connection" patented technology

A semiconductor device in which a semiconductor chip (3) is mounted on a substrate (2), comprising a substrate having electrodes (7, 8) for substrate-to-substrate connection disposed on both sides of the substrate and connected via a through hole (9), a semiconductor chip having an electrode connected to a wiring pattern arranged on the substrate and having a flat-cut face opposite to the face where the electrode is provided, a bump (4) for substrate-to-substrate connection provided on the electrode for substrate-to-substrate connection and having a flat-cut face opposite to the face facing the substrate, a sealing resin body (5) provided on the substrate, used for sealing the semiconductor chip and the bump for substrate-to-substrate, and having a flat-cut face opposite to the face facing the substrate, wherein the flat-cut face (3a) of the semiconductor chip, the flat-cut face (4a) of the bump for substrate-to-substrate, and the flat-cut face (5a) or the sealing resin body are flush with one another, and the semiconductor chip and the bump for disk recording medium except for the flat-cut faces are scaled in the sealing body.

The present invention is an improved solar concentrator array utilizing a monolithic array of primary mirrors fabricated from a single sheet of formable material. The material may include glass, plastic, and metal of a high thermal stability to be able to withstand a broad range of temperature conditions. The monolithic array of this invention may include integral alignment or attachment features for attachment to a supporting structure.

A liquid crystal display device having a liquid crystal panel LCP and a touch panel TP provided on the front surface of the liquid crystal panel is characterized in that wires connected to the liquid crystal panel and wires connected to the touch panel are included in one flexible printed circuit FPC, which is first connected (FOG1) to the liquid crystal panel (specifically, a TFT substrate (TFTS)) and then connected (FOG2) to the touch panel.

A flip chip mounting body in which a circuit substrate having a plurality of connection terminals and an electronic part (semiconductor chip) having a plurality of electrode terminals are aligned face to face with each other, with a resin composition composed of solder powder, a resin and a convection additive being sandwiched in between, while a means such as spacers is interposed in between so as to provide a uniform gap between the two parts, or the electronic part (semiconductor chip) is placed inside a plate-shaped member having two or more protruding portions, so that the solder powder is allowed to move through boiling of the convection additive and to be self-aggregated to form a solder layer, thereby electrically connecting the connection terminals and the electrode terminals; and a mounting method for such a mounting body.

A power generating device includes: a piezoelectric member that is formed from a piezoelectric material; one pair of electrodes that are installed to the piezoelectric member; a transformation unit that repeatedly transforms the piezoelectric member; an inductor that is installed between the one pair of electrodes and configures a resonance circuit together with a capacitive component of the piezoelectric member; a switch that is connected to the inductor in series; and a switch control unit that connects the switch when a transformation direction of the piezoelectric member is switched, and cuts off the switch when a time corresponding to a half period of a resonance period of the resonance circuit elapses.

The present invention provides a substrate, an optical fiber connecting end member, an optical element-housing member, a light module, and a manufacturing method of the substrate. The substrate has a feature that can be stably realizable and having a simple structure and that a light waveguide formed on the substrate surface or an optical element formed thereon can be connected without core alignment to an optical element provided on the optical fiber of the optical fiber connector to be connected to the optical fiber connecting end member. The substrate of the present invention is characterized in steps 5 for positioning being formed on at least one side of the substrate 1 that provides the optical waveguide 4.

The present invention provides a wheel bearing device that can suppress backlash in the circumferential direction and has excellent workability in connecting a hub wheel and a outer joint component of a constant velocity universal joint. The wheel bearing device according to the present invention is that in which a stem shaft 12 of an outer joint component of a constant velocity universal joint 3 fitted into a hole section 22 of a hub wheel 1 is integrated with the hub wheel 1 by a projection and recess mating structure M. In the projection and recess mating structure M, an overall recess mating area 38 of a projection 35 is in close contact with a corresponding recess 36.

A seal cover includes a cover main body (10) shaped to cover an opening of a case and to be attached to a surface of the case. A seal ring holder (20A) is on the underside of the cover main body (10) and is arranged to fit into the opening. A seal ring (25) is on the outer peripheral surface of the seal ring holder (20A) and closely contacts the inner peripheral surface of the opening. An interlock connector (40) projects from the seal ring holder (20A) for connecting to the waiting connector and sets an energizing circuit in an energized state or a non-energized state upon being connected to or separated from the waiting connector. The interlock connector (40) is mounted on the seal ring holder (20A) to be movable in a direction perpendicular to a connecting direction to the waiting connector.

A charge and discharge device (10) includes: a battery unit (110) in which m (m is an integer of 3 or more) battery cells (112) that are connected in series are grouped into plural groups (114) including n (n is an integer equal to or larger than 2 and smaller than m) battery cells (112) that are continuously arranged and a part of the battery cells (112) that belong to a certain group is shared by a different group; a cell balance unit (120) that is provided for each group (114) and uniformizes voltages of the battery cells (112) that belong to the group (114); and a control unit (130) that stops the operation of the cell balance unit (120), when a voltage difference of the battery cells (112) that belong to an arbitrary one of the groups (114) is within a predetermined value, and when a total average voltage in all the battery cells (112) and a partial average voltage which is an average voltage of the battery cells (112) that belong to the arbitrary group (114) satisfy a specific condition, the cell balance unit (120) corresponding to the arbitrary group (114).

A spacer plate (3, 6, 7) for interconnecting support profiles (1, 5, 8, 9) of a display support structure (23) is described, including at least one alignment opening (11) for receiving an alignment stud (2) for aligning a first profile (1, 8) with respect to a second profile (5, 9) via the spacer plate (6), and at least one connector opening (13) for receiving a connector bar (4) for connecting the first profile (1, 8) to the second profile (5, 9) via the spacer plate (6), wherein the connector opening (13) is connected to the alignment opening (11) such that the relative position of the alignment stud (2) inside the alignment opening (11) is adjustable by the position of the connector bar (4) inside the connector opening (13). This allows to easily put the alignment stud (2) into the alignment opening (11) of the spacer plate (3, 6, 7) or vice versa and to eliminate all free play between the alignment stud (11) and the spacer plate (3, 6, 7) at the same time. The assembly of the support structure (23) is not hampered. At the same time a self centering of the alignment stud (2) with respect to the spacer plate (3, 6, 7) can be forced leading to an increased accuracy, when the profiles (1, 5, 8, 9) are connected to each other.

Section images of a human body part are continuously input by relative movement with respect to a read unit in an image input step, a living body section image including a character shape from an input section image group in a character area section step, and, when living body section images which include character shapes which are chronologically continuous are selected, the living body section images are connected to each other to generate a connected living body image in an image connection step. In the collation step, the connected living body image including the character shapes and living body section images which include character shapes which are not connected to each other are collated with a corresponding portion in reference information of a human body part which is registered in advance to authenticate an identical person.

An active matrix substrate includes: storage capacitor wirings (18); a Cs trunk wiring (50) connected with the storage capacitor wirings via contact holes (48) provided in a non-display region (44); scanning signal lines (16) provided in the same layer as the storage capacitor wirings (18) and crossing the Cs trunk wiring (50) in the non-display region (44); an insulating layer between the storage capacitor wirings (18) and the Cs trunk wiring (50) which includes: a through-bore portion for forming the contact hole (48); a first film thickness portion (53) adjacent to the through-bore portion; and a second film thickness portion which is thicker than the first film thickness portion (53) and situated at least in the intersections of the storage capacitor wirings (18) with the Cs trunk wiring (50). Consequently, the storage capacitor wirings (18) and the Cs trunk wiring (50) are connected with high precision, and a short circuit between the Cs trunk wiring (50) and the scanning signal lines (16) is unlikely to occur.

An apparatus includes a beam deflection portion for deflecting the electron beam to change an irradiation position of the electron beam; a synchronization signal generation portion for generating a synchronization signal which is in synchronization with the rotation of the substrate; a controller for controlling the beam deflection portion on the basis of the synchronization signal in order to deflect the electron beam in a rotational radial direction of the substrate and in a rotational tangential direction of the substrate opposite to a rotational direction of the substrate, while drawing transition is performed from one circle to another circle; and a beam cutoff portion for cutting off the irradiation of the electron beam on the substrate, for a period during the electron beam is deflected in the rotational radial direction.

A resin sleeve is used as an optical connection sleeve 1 for optically connecting an optical fiber 41 with an optical component. A ferrule fixing surface 21 provided on an inner peripheral surface of a ferrule insertion portion 2 of the sleeve 1 is formed to have a multifaceted shape in which a cross section thereof on a plane vertical to an optical axis A thereof has a hexagonal shape. A ferrule 40 can be positioned and fixed accurately by a tight fit utilizing elastic deformation of resin. An outer peripheral surface of the ferrule 40 and the ferrule fixing surface 21 come into line contact with each other, and thus detachability of the ferrule 40 is enhanced. Therefore, an optical fiber ferrule can be held accurately, and the optical connection sleeve having a satisfactory detachability, an optical module using the same and an optical communication module are realized.

A bearing device for a wheel, in which circumferential play is suppressed, which facilitates connection between a hub ring and an outer coupling member, in which a reduction in NVH characteristics due to play at a joint between the hub ring and the constant velocity universal joint and by play between a bearing outer member and a knuckle is prevented, and which performs highly accurate transmission of rotational torque. The bearing device has a groove-ridge fitting structure (M) by which the hub ring (1) and a shaft section (12) of the outer coupling member of the constant velocity universal joint (3) are integrated together, and the shaft section (12) is fitted in a hole (22) of the hub ring (1). In the groove-ridge fitting structure (M), ridges (35) on the outer diameter surface of the shaft section (12) and grooves (36) in the inner diameter surface (37) of the hub ring (1) are fitted to each other in a fitting contact portion (38), and the ridges (35) and the grooves (36) are in intimate contact with each other in the entire fitting contact portion (38).

Provided is a bearing device for a wheel that can realize prevention of a backlash in a circumferential direction and is excellent in workability of connection of a hub wheel and an outer joint member of a constant velocity universal joint. Further, provided is a bearing device for a wheel that can prevent deterioration in NVH characteristics, which is caused by the backlash occurring in a joint section between the hub wheel and the constant velocity universal joint or between an outer member and a knuckle, and can perform rotation torque transmission with high accuracy. The bearing device includes a recess-projection fitting structure (M) in which the hub wheel (1) and a shaft section (12), which is fitted in a hole (22) of the hub wheel (1) of the outer joint member of the constant velocity universal joint (3) are unitized together. In the recess-projection fitting structure (M), entire fitting regions among projections (35) on the outer surface of the shaft section (12) of the outer joint member and recesses (36), which fit on the projections, are brought into intimate contact with each other.

A rotor mounting device for inserting the rotor of a motor into a rotor housing which is mounted to an engine and coaxially mounting the rotor to a crankshaft. The rotor mounting device is provided with a rotor supporting member, a rotor positioning member engaging with some of the bolt insertion holes formed in the rotor to position the rotor, a temporarily fixing bolt for temporarily fixing therotor to the rotor supporting member, a driving shaft having a front end engaged with an end of the crankshaft and axially movably supporting the rotor supporting member through a screw mechanism, a base member for rotatably supporting the base end side of the driving shaft and allowing the rotor supporting member to approach and separate from the base member, a base positioning member engaging with the rotor housing, and a fastening mechanism engaging with the head of a connecting bolt inserted through at least one of the bolt insertion holes and supported by the rotor supporting member so asto urge the connecting bolt to the rotor side.

A liquid crystal display device having a liquid crystal panel LCP and a touch panel TP provided on the front surface of the liquid crystal panel is characterized in that wires connected to the liquid crystal panel and wires connected to the touch panel are included in one flexible printed circuit FPC, which is first connected (FOG1) to the liquid crystal panel (specifically, a TFT substrate (TFTS)) and then connected (FOG2) to the touch panel.

A connection clamping device (21; 61; 81; 131; 151) arranged for securing a flexible tube (1) to a barbed end (5b) of a tube connector (5), whereby the barbed end (5b) comprises a barb (9) and the tube connector during connection is arranged to protrude into an end of the flexible tube (1), characterized in that said connection clamping device comprises two sections (23a, 23b) which, during connection when the tube connector protrudes into an end of the flexible tube, are arranged to be connected and locked to each other by a locking mechanism (33a,33b,34a,34b; 63a, 63b, 64a, 64b) around the tube connector (5) and the flexible tube (1), such that the flexible tube (1) is compressed against the tube connector (5) by a rib (41a, 41b) provided on the inner circumference of the connection clamping device.

An apparatus includes a beam deflection portion for deflecting the electron beam to change an irradiation position of the electron beam; a synchronization signal generation portion for generating a synchronization signal which is in synchronization with the rotation of the substrate; a controller for controlling the beam deflection portion on the basis of the synchronization signal in order to deflect the electron beam in a rotational radial direction of the substrate and in a rotational tangential direction of the substrate opposite to a rotational direction of the substrate, while drawing transition is performed from one circle to another circle; and a beam cutoff portion for cutting off the irradiation of the electron beam on the substrate, for a period during the electron beam is deflected in the rotational radial direction.

A spacer plate (3, 6, 7) for interconnecting support profiles (1, 5, 8, 9) of a display support structure (23) is described, including at least one alignment opening (11) for receiving an alignment stud (2) for aligning a first profile (1, 8) with respect to a second profile (5, 9) via the spacer plate (6), and at least one connector opening (13) for receiving a connector bar (4) for connecting the first profile (1, 8) to the second profile (5, 9) via the spacer plate (6), wherein the connector opening (13) is connected to the alignment opening (11) such that the relative position of the alignment stud (2) inside the alignment opening (11) is adjustable by the position of the connector bar (4) inside the connector opening (13). This allows to easily put the alignment stud (2) into the alignment opening (11) of the spacer plate (3, 6, 7) or vice versa and to eliminate all free play between the alignment stud (11) and the spacer plate (3, 6, 7) at the same time. The assembly of the support structure (23) is not hampered. At the same time a self centering of the alignment stud (2) with respect to the spacer plate (3, 6, 7) can be forced leading to an increased accuracy, when the profiles (1, 5, 8, 9) are connected to each other.

A linear conveyor device is installed on a platform having an upper surface which serves as a predetermined installation surface. The linear conveyor device includes a linear motor stator; a slider which includes a linear motor mover; a straight-line conveyance part formed by linearly connecting a plurality of modules to each other, the modules each including a base frame that has an upper surface having guide rails for guiding the movement of the slider and a lower surface facing the platform; and a base member disposed between the upper surface of the platform and the lower surfaces of the modules at a connecting portion between the modules, and configured to position and support the pair of modules to be connected to each other.

A power generating device includes: a piezoelectric member that is formed from a piezoelectric material; one pair of electrodes that are installed to the piezoelectric member; a transformation unit that repeatedly transforms the piezoelectric member; an inductor that is installed between the one pair of electrodes and configures a resonance circuit together with a capacitive component of the piezoelectric member; a switch that is connected to the inductor in series; and a switch control unit that connects the switch when a transformation direction of the piezoelectric member is switched, and cuts off the switch when a time corresponding to a half period of a resonance period of the resonance circuit elapses.

Disclosed is a metal component coupling structure and metal component coupling device capable of high strength and high precision coupling. An axial part (17) of a second metal component (12) is fitted in an annular part (14) of a first metal component (11), a restraint ring (33) is arranged on the outer circumference of the annular part (14) of the first metal component (11), and, by plastically deforming by applying force to the annular part (14), said annular part (14) is made to enter into a coupling groove (16) of the axial part (17), coupling the first metal component (11) and the second metal component (12) by mechanical interlocking.

A bearing device for a wheel, in which circumferential play is suppressed and which has excellent workability of connection between a hub ring and an outer joint member of a constant velocity universal joint. In the bearing device for a wheel, a stem shaft (12), which is fitted in a hole (22) of the hub ring (1), of the outer joint member of the constant velocity universal joint (3) is integrated with a hub ring (1) via a depression / projection fitting structure (M). In the depression / projection fitting structure (M), the entire part of a portion (38) of a projection (35), which portion is to be fitted to a depression, is in intimate contact with a corresponding depression section (36).

A charge and discharge device (10) includes: a battery unit (110) in which m (m is an integer of 3 or more) battery cells (112) that are connected in series are grouped into plural groups (114) including n (n is an integer equal to or larger than 2 and smaller than m) battery cells (112) that are continuously arranged and a part of the battery cells (112) that belong to a certain group is shared by a different group; a cell balance unit (120) that is provided for each group (114) and uniformizes voltages of the battery cells (112) that belong to the group (114); and a control unit (130) that stops the operation of the cell balance unit (120), when a voltage difference of the battery cells (112) that belong to an arbitrary one of the groups (114) is within a predetermined value, and when a total average voltage in all the battery cells (112) and a partial average voltage which is an average voltage of the battery cells (112) that belong to the arbitrary group (114) satisfy a specific condition, the cell balance unit (120) corresponding to the arbitrary group (114).

A microlens array, which maintains high positional accuracy with respect to an optical circuit such as a waveguide and facilitates connection operation, and an optical transmission component including the microlens array.SolutionThe microlens array is provided with a plurality of microlenses arranged in an array structure and having the same length in the optical axis direction and optical fibers for alignment arranged at both ends of the array structure so that the optical axis is parallel to the optical axis of the microlens and having a length in the optical axis direction the same as the length of the microlens and a guided mode diameter smaller than an aperture of the microlens.

The present invention provides a contact spot and transmission error comprehensive test bench for a transmission assembly. The test bench integrates the functions of the contact spot test and the transmission error test, the requirement for making two test benches is avoided, and the test efficiency is improved; and at the same time, the contact spot test is conducted before conducting the transmission error test to avoid that the measured value of the transmission error is untrue or inaccurate due to poor contact conditions. The test bench comprises a bench body, an angular misalignment adjusting component, a driving component and a loading component; the driving component is connected with an input shaft of a transmission test piece, and the loading component is connected with an outputshaft of the transmission test piece; and the angular misalignment adjusting component has a gear meshing misalignment quantity simulation function, so that measurement on the transmission error of asingle pair of gears in the presence of misalignment conditions can be realized.

A rotor mounting device for inserting the rotor of a motor into a rotor housing which is mounted to an engine and coaxially mounting the rotor to a crankshaft. The rotor mounting device is provided with a rotor supporting member, a rotor positioning member engaging with some of the bolt insertion holes formed in the rotor to position the rotor, a temporarily fixing bolt for temporarily fixing therotor to the rotor supporting member, a driving shaft having a front end engaged with an end of the crankshaft and axially movably supporting the rotor supporting member through a screw mechanism, a base member for rotatably supporting the base end side of the driving shaft and allowing the rotor supporting member to approach and separate from the base member, a base positioning member engaging with the rotor housing, and a fastening mechanism engaging with the head of a connecting bolt inserted through at least one of the bolt insertion holes and supported by the rotor supporting member so as to urge the connecting bolt to the rotor side.

The high-precision piston rod connecting structure comprises a piston rod, the upper end of the piston rod is connected with a piston body, the lower end of the piston rod is connected with a crosshead, the upper end of the crosshead is connected with a positioning flange with a center hole, and the lower end of the piston rod is a reducing end transited through a conical surface section. The reducing end penetrates through the center hole of the positioning flange and is stretched and locked by a first fastening structure; the upper section of the center hole of the positioning flange is a taper hole matched with the conical surface section of the piston rod; the upper end of the piston rod penetrates into a center hole of the piston body, is stretched and locked by a second fastening structure and is provided with an anti-rotation structure. Automatic centering is achieved through conical surface matching, stable pre-tightening force is provided in cooperation with a double-fastening structure, the problems that a traditional connecting structure is insufficient in precision and poor in locking reliability are effectively solved, the operation precision and stability of a compressor are greatly improved, and meanwhile the compressor connecting structure has the advantages of being convenient to install and maintain and long in service life.