Abstract: There is provided a solid-state imaging device which includes a focus detection pixel that has a light shielding film, which is formed on a light receiving surface of a photoelectric conversion portion and shields light in a part of the light receiving surface, performs pupil division and photoelectric conversion of a received light flux and acquires a phase difference detection signal, where the light shielding film is formed avoiding a gate electrode of a reading gate portion to read a signal charge from the photoelectric conversion portion.

Abstract: There is provided a solid-state imaging device which includes a focus detection pixel that has a light shielding film, which is formed on a light receiving surface of a photoelectric conversion portion and shields light in a part of the light receiving surface, performs pupil division and photoelectric conversion of a received light flux and acquires a phase difference detection signal, where the light shielding film is formed avoiding a gate electrode of a reading gate portion to read a signal charge from the photoelectric conversion portion.

Abstract: There are included a core 20 formed from a magnetic material; a terminal mounting unit 80 arranged on one end portion side of core 20; a coil 40 which is arranged on the outer circumferential side of core 20 and concurrently which is formed by winding a conductive wire 41; and a plurality of terminal members 70 which are mounted on terminal mounting unit and concurrently which are electrically connected with a terminal end of conductive wire 41 or with an electronic component at any position, wherein at terminal mounting unit 80, there are provided a plurality of mounting grooves 81 for plugging-in terminal members 70.

Abstract: There is provided a solid-state imaging device which includes a focus detection pixel that has a light shielding film, which is formed on a light receiving surface of a photoelectric conversion portion and shields light in a part of the light receiving surface, performs pupil division and photoelectric conversion of a received light flux and acquires a phase difference detection signal, where the light shielding film is formed avoiding a gate electrode of a reading gate portion to read a signal charge from the photoelectric conversion portion.

Abstract: Provided is an antenna coil component including a bobbin around which a winding is wound, a base provided at least at one end side of the bobbin, and one or more metal terminals each fixed to the base, at least one metal terminal among these metal terminals including a fixing part for fixing the metal terminal to the base, a mounting part provided at a position away from the fixing part, and a neck part for connecting the fixing part and the mounting part to each other. The neck part has a length in a direction substantially orthogonal to a direction from the fixing part to the mounting part and substantially parallel to surfaces of the mounting part, which is narrower than that of the mounting part. Provided as well are an antenna unit using the antenna coil component, and a method of manufacturing the antenna coil component.

Abstract: A capacitance type detection device may include a sensor electrode forming a capacitor with respect to a peripheral conductor; a measurement unit measuring the floating capacitance of the sensor electrode, which changes correspondingly to a positional relation between the sensor electrode and the detection object; and a judgment unit judging the approach of the detection object in a case in which there is satisfied an approach detection condition including a fact that a magnitude correlation between a time rate-of-change of the floating capacitance measured by the measurement unit and a predetermined time rate-of-change which is defined correspondingly to a combination of the detection object and an object to be discriminated so as to be different from the detection object lies in a predetermined relation.

Abstract: Disclosed is a solid-state image sensing device including: a first photoelectric conversion element having a first semiconductor region of a first conductivity type formed inside a semiconductor substrate; a second photoelectric conversion element having a second semiconductor region of a first conductivity type formed at a deeper position of the semiconductor substrate than the first photoelectric conversion element; a gate electrode laminated on the semiconductor substrate and to which a predetermined voltage is applied at a charge transfer time; a floating diffusion region to which the charges accumulated in the first photoelectric conversion element and the second photoelectric conversion element are transferred at the charge transfer time; and a third semiconductor region of a first conductivity type arranged between the first semiconductor region and the second semiconductor region in a depth direction of the semiconductor.

Abstract: Disclosed is a solid-state image sensing device including: a first photoelectric conversion element having a first semiconductor region of a first conductivity type formed inside a semiconductor substrate; a second photoelectric conversion element having a second semiconductor region of a first conductivity type formed at a deeper position of the semiconductor substrate than the first photoelectric conversion element; a gate electrode laminated on the semiconductor substrate and to which a predetermined voltage is applied at a charge transfer time; a floating diffusion region to which the charges accumulated in the first photoelectric conversion element and the second photoelectric conversion element are transferred at the charge transfer time; and a third semiconductor region of a first conductivity type arranged between the first semiconductor region and the second semiconductor region in a depth direction of the semiconductor.

Abstract: A capacitance type detection device may include a sensor electrode forming a capacitor with respect to a peripheral conductor; a measurement unit measuring the floating capacitance of the sensor electrode, which changes correspondingly to a positional relation between the sensor electrode and the detection object; and a judgment unit judging the approach of the detection object in a case in which there is satisfied an approach detection condition including a fact that a magnitude correlation between a time rate-of-change of the floating capacitance measured by the measurement unit and a predetermined time rate-of-change which is defined correspondingly to a combination of the detection object and an object to be discriminated so as to be different from the detection object lies in a predetermined relation.

Abstract: An antenna coil includes: a core (3) formed by shaping a magnetic material into a bar-like configuration; a bobbin (1) having a through-hole (12) into which the core (3) is to be inserted; a connection section (15) fixed to the bobbin (1) so as to extend in a length direction of the core (3) from the bobbin (1), with the core (3) inserted into the through-hole (12); a winding (14) which is wound around the bobbin (1) and whose ends are connected to the connection section (15); and a connector terminal (25) which is provided at a certain position in the length direction of the core (3), which fixes the connection section (15) in position, and which determines the position of the winding (14) in the length direction of the core (3).

Abstract: An antenna coil includes: a core (3) formed by shaping a magnetic material into a bar-like configuration; a bobbin (1) having a through-hole (12) into which the core (3) is to be inserted; a connection section (15) fixed to the bobbin (1) so as to extend in a length direction of the core (3) from the bobbin (1), with the core (3) inserted into the through-hole (12); a winding (14) which is wound around the bobbin (1) and whose ends are connected to the connection section (15); and a connector terminal (25) which is provided at a certain position in the length direction of the core (3), which fixes the connection section (15) in position, and which determines the position of the winding (14) in the length direction of the core (3).

Abstract: A routing control system comprising a spanning tree producing portion provided in a master node of a radio access network. The spanning tree producing portion produces a spanning tree of the network whenever it receives connection information sent from slave nodes of the network. The spanning tree is delivered to each slave node. A memorizing portion is provided in each of the nodes and memorizes the spanning tree as a routing table. A health check portion is provided in each of the nodes and transmits the connection information to the spanning tree producing portion when topology change of the network is detected. The said health check portion updates the routing table in cooperation with those of adjacent nodes.

Abstract: A routing control system comprising a spanning tree producing portion provided in a master node of a radio access network. The spanning tree producing portion produces a spanning tree of the network whenever it receives connection information sent from slave nodes of the network. The spanning tree is delivered to each slave node. A memorizing portion is provided in each of the nodes and memorizes the spanning tree as a routing table. A health check portion is provided in each of the nodes and transmits the connection information to the spanning tree producing portion when topology change of the network is detected. The said health check portion updates the routing table in cooperation with those of adjacent nodes.

Abstract: A noise absorbing device is adapted to prevent radiation noise or induction noise from a cable connected to an electronic apparatus. A pair of holder segments (11 and 12) receive core pieces (20) in receiving recesses and are coupled by hinge portions (19) so as to be brought into butt contact with each other so that the pair of core pieces (20) form a cylindrical body with a cable extending therethrough. Elastic pieces (31) are interposed between the pair of core pieces (20) and the pair of holder segments (11 and 12) in order to provide an elastic force to the core pieces (20) so that the core pieces are slightly protruded from opening edges of the holder segments (11 and 12). When the pair of holder segments (11 and 12) are brought into butt contact with each other, the pair of core pieces (20) are put into press contact with each other by the elastic force of the elastic pieces (60).