Abstract: A vehicle control system includes a detector and a processor. The detector is configured to detect a first stop line on the basis of map data stored in a road map database, and detect a second stop line on the basis of traveling environment data acquired by a camera unit. In a case where the detector detects the first stop line, the processor is configured to control a vehicle to decelerate at a first deceleration rate calculated on the basis of a distance from the vehicle to the first stop line. In a case where the detector detects the second stop line after detecting the first stop line, the processor is configured to control the vehicle to decelerate at a second deceleration rate calculated on the basis of a distance from the vehicle to the second stop line and stop at the second stop line.

Abstract: A reactor includes a coil having a winding portion; a magnetic core including an inner core portion and an outer core portion disposed outside the winding portion; a resin cover housing at least a portion of the magnetic core; and an adhesive portion filling a gap between an outer circumferential surface of a housing portion of the magnetic core and an inner circumferential surface of the resin cover bonding the housing portion with the resin cover. The resin cover includes: a flange portion having a surface that comes into contact with an end face of the winding portion and a through hole; an outer cover portion having housing portion housing the outer core portion and an abutting portion that contacts a portion of the flange portion; and a protruding portion that forms the gap between an outer circumferential surface of the outer core portion.

Abstract: A reactor includes a coil having a winding portion; a magnetic core including an inner core portion and an outer core portion disposed outside the winding portion; a resin cover housing at least a portion of the magnetic core; and an adhesive portion filling a gap between an outer circumferential surface of a housing portion of the magnetic core and an inner circumferential surface of the resin cover bonding the housing portion with the resin cover. The resin cover includes: a flange portion having a surface that comes into contact with an end face of the winding portion and a through hole; an outer cover portion having housing portion housing the outer core portion and an abutting portion that contacts a portion of the flange portion; and a protruding portion that forms the gap between an outer circumferential surface of the outer core portion.

Abstract: An induction motor includes: a stator and a rotor arranged so as to face the stator via a void, the rotor including conductor bars in a plurality of slots formed by a plurality of teeth arranged so as to extend in the circumferential direction of a rotatably held rotor core, wherein the circumferential width of distal end portions of the slots on the radially outside of the rotor core are narrowed by distal end portion of the teeth on the radially outside of the rotor core, and the teeth are each formed with a projection protruding in an arcuate shape from the distal end of the tooth on the radially outside of the rotor core toward the conductor bar in each of the slots.

Abstract: A control knob capable of operating multiple systems has a first rotational body and a second rotational body coaxially arranged, and a shaft connected to the second rotational body. Opposite the shaft, a movable body is moved axially in response to rotation of the first rotational body. Engaging units have concaves or convexes, for example, similar to teeth. The engaging units are provided on the shaft or the movable body. An engaged unit is elastically biased toward one of the engaging units, and engages the concaves or convexes. In use, the control knob may be configured to permit selection of a function by rotation of the first rotational body, and to permit adjustment of the function by rotation of the second rotational body.

Abstract: It is an object to provide electrical equipment eliminating the need to change the diameter of wires, and capable of improving assembly workability. Vehicle-mounted camera equipment includes a circuit substrate having a substrate connector, and a camera housing. An inside connector section which is connected to the substrate connector is provided integrally on an inner surface side of the camera housing, and an outside connector section which is connected to an external connector provided at the end of an external harness is provided integrally on an outer surface side of the camera housing. Connector terminals of the inside connector section and connector terminals of the outside connector section are connected by connecting conductors, respectively, which are provided to be buried in the camera housing. The connector terminals, and the connecting conductors are made of a single conductive material.

Abstract: A mode switching switch and a dial switch are coaxially provided. A spring member is fixed to a linkage unit of the dial switch. The linkage unit is inserted through a click number change member, which has a cylinder unit and a shaft. The shaft is inserted into a guide groove formed on a cylinder unit of the mode switching switch. By the rotation of the mode switching switch, the click number change member is moved in the axial direction. On the inner circumferential surface of the cylinder unit of the click number change member, two click surfaces on which the different numbers of concaves or convexes are formed in the circumferential direction are aligned in the axial direction. By the movement in the axial direction of the click number change member, any one of the click surfaces is engaged with the spring member.

Abstract: It is an object to provide electrical equipment eliminating the need to change the diameter of wires, and capable of improving assembly workability. Vehicle-mounted camera equipment 20 includes a circuit substrate 24 having a substrate connector 27, and a camera housing 25. An inside connector section 28 which is connected to the substrate connector 27 is provided integrally on an inner surface side of the camera housing 25, and an outside connector section 29 which is connected to an external connector 22 provided at the end of an external harness 21 is provided integrally on an outer surface side of the camera housing 25. Connector terminals 28a of the inside connector section 28 and connector terminals 29a of the outside connector section 29 are connected by connecting conductors 30, respectively, which are provided to be buried in the camera housing 25. The connector terminals 28a, 29a, and the connecting conductors 30 are made of a single conductive material.

Abstract: A lens unit is inserted to be arranged in a holder portion substantially in a cylindrical shape. The lens unit is rotatably attached with an adjuster. The adjuster is able to be screwed into the holder portion. By rotating the adjuster while being screwed in the holder portion in a state of inserting to arrange the lens unit in the holder portion, the lens unit 5 moves in an axial direction of the holder portion to adjust a position thereof.

Abstract: A waterproof case for an in-vehicle camera includes a front case part and a rear case part, and houses imaging means such as the imaging device therein. A packing member is set between the front case part and the rear case part, and waterproofs and seals the space therebetween. A water-stop wall part is protrudingly formed on a flange part which is an attaching portion of the rear case part at a peripheral of the packing member. A concave part, into which the water-stop wall part can be fitted, is formed on an opening peripheral part which is an attaching portion of the front case part.

Abstract: A circuit board is accommodated in a camera-housing and a connector housing portion formed integrally with the camera housing. An interior wiring has its one end connected to the circuit board and the other end connected to a connector terminal in a pressing state. The connector terminal is accommodated to be held in the camera housing, so that an external connecting connector portion is formed. An external connector located at an external harness is connected to the external connecting connector portion, so that a vehicle mounting camera apparatus is connected to an external apparatus through an external harness.

Abstract: A lens unit is inserted to be arranged in a holder portion substantially in a cylindrical shape. The lens unit is rotatably attached with an adjuster. The adjuster is able to be screwed into the holder portion. By rotating the adjuster while being screwed in the holder portion in a state of inserting to arrange the lens unit in the holder portion, the lens unit 5 moves in an axial direction of the holder portion to adjust a position thereof.

Abstract: A circuit board is accommodated in a camera-housing and a connector housing portion formed integrally with the camera housing. An interior wiring has its one end connected to the circuit board and the other end connected to a connector terminal in a pressing state. The connector terminal is accommodated to be held in the camera housing, so that an external connecting connector portion is formed. An external connector located at an external harness is connected to the external connecting connector portion, so that a vehicle mounting camera apparatus is connected to an external apparatus through an external harness.

Abstract: Disclosed is a method for manufacturing electronic parts in which the soldering operation, the operation of checking the soldering and the operation of mounting the shield cases are simplified and in which an improvement is achieved in terms of the dimensional accuracy of the electronic parts. Before a mother board is cut and divided, through-holes 14 formed around sections corresponding to substrates 2 are filled with solder 15. Next, legs 1c of shield cases 1 are inserted into the solder 15 such that they are brought into close contact with the inner peripheral surfaces of the through-holes 14, and the legs 1c are secured in position by reflow soldering. Then, the mother board is cut so as to separate the through-holes 14 (the solder 15), whereby electronic parts are obtained each of which is composed of a shield case 1 and a substrate 2 on the sides 2b and 2c of which the solder 15 is exposed.

Abstract: A horizontal saw tooth wave voltage VSAW is compared with an error output voltage VVP from the error amplifier circuit 115 in level by the comparator 16 and a comparison output voltage VCO of a square wave is obtained. The transistor 19 performs the switching operation at the comparison output voltage VCO, and a horizontal size control current IO flowing via the choke coil 21 is controlled by it, and a horizontal deflection current I.sub.DY in the horizontal deflection output circuit 65 is controlled. The comparison output voltage VCO is inverted and integrated by the inverter 24 and the integral circuit 23 in the feedback voltage generation circuit 80 and a feedback voltage VFB is generated. The feedback voltage VFB is supplied to the error amplifier circuit 115 together with a horizontal size reference voltage Vref for deciding the horizontal size of the screen and the level of the error output voltage VVP is controlled so that a relation that these levels are fixed is established.

Abstract: A demodulation circuit having an automatic frequency control (AFC) function in which a received input high frequency signal is mixed with a first reference signal to once form an intermediate frequency signal, the intermediate frequency signal is then mixed with a second reference signal having an adjustable frequency through such a frequency correction unit as a matched filter unit to obtain a demodulation signal having a maximum power value kept as a base band signal. For the purpose of preventing the failure of maintaining the AFC function caused by the limited correctable range of the frequency correction unit such as the matched filter unit, when the correctable range of the frequency correction unit reaches its limit, the frequency of the first reference signal is separately adjusted to thereby keep the frequency of the intermediate frequency signal always within the correctable range of the frequency correction unit.