33results about How to "Does not lead to large" patented technology

To provide an endoscopic device in which an endoscope includes a correction means for an image using a correction parameter such as sensitivity unevenness correction or defective pixel correction, the endoscopic device being capable of storing the correction parameter using an existing I / F without further providing a new device or a signal line. The above-described problem is solved by adopting a configuration in which an endoscopic device includes an endoscope that includes a correction means correcting an image and a storage means storing a correction parameter, a control device, and a generating means generating a correction parameter, wherein the correction parameter generated by the generating means in accordance with the command of the control device is written in the storage means by the correction means.

A discharge displacement control system (A) of a variable displacement compressor has target pressure setting means (402A), discharge pressure detection means (500), and electric current regulation means (404, 406). The target pressure setting means (402A) sets a target of either the pressure in a suction chamber or the pressure in a crank chamber based on a target air temperature at the evaporator exit detected by means (510) for detecting the air temperature at the evaporator exit and on a target air temperature at the evaporator exit set by means (512) for setting a target air temperature at the evaporator exit. The discharge pressure detection means (500) detects the pressure of refrigerant in a high-pressure region. The electric current regulation means (404, 406) regulate, based on both the pressure of the refrigerant in the high-pressure region detected by the discharge pressure detection means (500) and the target pressure set by the target pressure setting means (402A), electric current supplied to a solenoid (316) of a displacement control valve.

The present invention provides a liquid treating apparatus, an air conditioning device and a humidifier. The liquid treating apparatus comprises a discharge electrode (31) and an injector (32) arranged to confront each other. The discharge electrode (31) and the injector (32) are fed inbetween with a potential difference by a power source (33). As a result, a streamer discharge is established from the discharge electrode (31) toward liquid droplets (32a) injected from the injector (32). Active seeds produced according to the streamer discharge are absorbed into the liquid droplets (32a) so that the water to be treated is sterilized and cleaned.

The present invention provides a laminated coil part. A coil 2, the center axis of which crosses the direction of a lamination A at right angles, is formed by respectively connecting one and the other side end sections of a prescribed via hole of a plurality of via holes 4 provided in the element 1 (laminate), in the direction of lamination A, by belt-like connecting electrodes 5 having plural-layer structures and provided in the element 1, in parallel with the laminating surface (in the direction perpendicular to the direction of lamination A). At the same time, the coil 2 is connected to an external electrode 3 for inputting and outputting through a lead-out electrode 6, which has a plural-layer structure and are provided in parallel with the lamination surface. As a result, the structure is miniaturized, the conductor resistance is reduced and the cost is reduced.

An apparatus for equalizing flow velocity distribution of a fuel gas supplied into a catalytic combustor includes a rectification vane and a rectification plate in an inlet chamber of the catalyst combustor. The inlet chamber has a round transverse sectional shape and includes an inflow port that allows the fuel gas to inflow radially, and an outflow port for discarding the fuel gas axially. The rectification vane has a front edge oriented towards the inflow port, and a rectifying surface ramified from the front edge so as to extend towards a cylindrical inner wall surface of the inlet chamber such that swirling flow of the fuel gas flown into the inlet chamber, that flows towards the inflow port along the cylindrical inner wall surface, is generated. The rectification plate is located at the outflow port and has openings for allowing the fuel gas to flow therethrough.

A frequency range and an attenuation amount of noise to be eliminated change depending upon to which one of two regions of side frames (34, 35) of a bottom (31) serving as a ground conductor surface first, second and third capacitors (21, 22, 23) are connected. Even if impedance of a ferrite core (12), the shape of a casing (11), capacitances of the capacitors (21, 22, 23), and the like are constant, a noise elimination characteristic changes by changing positions of the first to third capacitors (21, 22, 23). As a result, components including the ferrite core (12) are commonalized and the noise elimination characteristic is easily adjusted in spite of characteristics of electrical equipment.

In the event of meeting demands for an increase of the amount of high-purity water fed through parallel run of multiple reaction furnaces for moisture generation, simplification of mixed gas (raw gas)distributor and marked reduction of equipment cost are attained by realizing of the distribution supply of H2 and O2 mixed gas with the use of very simple orifice. Accordingly, there is provided a method of parallel run of reaction furnaces for moisture generation, comprising disposing an orifice with bore of given diameter on the mixed gas entrance side of each of parallelly connected multiple reaction furnaces for moisture generation so that not only is hydrogen / oxygen mixed gas (G) from a mixing unit fed through the orifice to each of the reaction furnaces for moisture generation but alsothe moistures generated by the individual reaction furnaces for moisture generation are joined together and fed to high-purity water using apparatus.

To achieve satisfactory workability in assembly, high mass- productivity, and miniaturization by reducing the overall dimension in the thrust direction. A rotating shaft 21 is rotatably supported to a case 11 by an upper bearing 14 and a lower bearing 15, and a rotating shaft 22 is formed so that a rotor coil 22a may be wound around a rotor core 22b. A printed circuit wiring board 23 is fixed to the rotating shaft so as to be perpendicularly intersected by the rotating shaft at the center part. The printed circuit wiring board 23 has contact electrode section. The contact electrode section 23a is connected to a rotating coil 22a through a conductive foil part. With a brush for electrodes and a brush for detecting rotation, a tip slides on and comes into contact with the contact electrode that is formed on the printed- wiring board.

A rotation angle detector for detecting a rotation angle of a detectable rotation body, comprises: a primary rotation body to be attached to the detectable rotation body and to rotate as integral with the detectable rotation body; a secondary rotation body to rotate as a predetermined rotation ratio for the primary rotation body; a primary rotation detection mechanism to output a signal to be varied periodically as corresponding to a rotation of the primary rotation body; a secondary rotation detection mechanism to output a signal to be varied periodically as corresponding to a rotation of the secondary rotation body; a signal processing unit to calculate the rotation angles of the primary and the secondary rotation bodies using the signals that the primary and the secondary rotation detection mechanisms output; and an operation processing unit to calculate the rotation angle of the detectable rotation body, based on the calculated rotation angle of the primary or of the secondary rotation body, and on a relative rotation angle between the primary and the secondary rotation body, wherein at least any one of the following signals (A) to (D) is designed to have a cycle as different from one cycle for one rotation of the primary rotation body or of the secondary rotation body; (A) an output signal of the primary rotation detection mechanism; (B) an output signal of the secondary rotation detection mechanism; (C) an input signal from the primary rotation detection mechanism to be processed at the signal processing unit; and (D) an input signal from the secondary rotation detection mechanism to be processed at the signal processing unit.

A door lock apparatus capable of improving operability without large-scale. The door lock apparatus, at both sides of a region interposing a second link lever (33) therebetween, includes a sector lever shaft (34) and an inside lever shaft (19) that extend in parallel with a swinging shaft of the second link lever (33). The door lock apparatus also includes an inside handle lever (17) swingably arranged about the inside lever shaft (19), and when an inside door handle (D2) arranged inside a vehicle is open-operated while the second link lever (33) is disposed in a cancel position, moves the second link lever (33) upwards by swinging about the center of the inside lever shaft (19), and when the inside door handle (D2) is open-operated while the second link lever (33) is disposed in a non-cancel position, swings the sector lever (31) in a locked position to an unlocked position about the center of the sector lever shaft (34), by swinging about the center of the inside lever shaft (19).

A switch unit is provided which is free from causing contact damage even in case applied to a high power voltage, whose switch unit is not greatly increased in size. Switches A and B are to take a motor stop status, a motor forward rotation status and a motor reverse rotation status. A switch C is to electrically connecting and disconnecting between the switches A and B and the power source. This switch C, when the switches A and B transits from the motor forward rotation status or motor reverse rotation status into the motor stop status, is operated from a connection state to a disconnection state at a time of any of completing the transition to the motor stop status and prior to a predetermined marginal period of time.

Provided is a motor-driven seat belt retractor which can be formed to have an entire compact size and can absorb impact energy on an occupant in the event of an emergency such as a vehicle collision. An electric motor (22) is disposed inside a cylindrical spool (18). The rotation of the electric motor (22) is transmitted to a spool (18) via a sun gear (31), planetary gears (33) and a carrier (32). In the event of an emergency, a locking mechanism (37) is actuated by the action of a deceleration sensing means (36) to lock the rotation of a locking base (38) in the belt unwinding direction. On the other hand, the spool (18) is about to continue to rotate in the belt unwinding direction by further inertia movement of an occupant so that a head (34a) of a torsion bar (34) of an EA mechanism is biased to rotate in the same direction via a carrier (32). Then, the torsion bar (34) is torsionally deformed, thereby absorbing impact energy on an occupant and limiting load on a seat belt 6 not to be too large.

The invention provides an air inlet structure of a saddle type vehicle, capable of preventing the hot wind from being sucked into an engine from an air chamber, so as to increase the air filling efficiency of the engine. In the saddle type vehicle, the engine (E) is arranged that: a cylinder part (43) projects upwards towards the front part of a crankcase (42) and a belt type stepless speed change device (M) is arranged at the side of the crankcase (42) of the engine (E) and an air filter (48) is arranged above the belt type stepless speed change device (M). In the air inlet structure, a speed change gear cooling pipe (52) for sucking the air in the belt type stepless speed change device (M) is arranged along the edge at the front side of the vehicle of the air filter (48) and used for blocking the flow of the hot air; the air inlet (63) of the air filter (48) is arranged at the outer side of the vehicle width direction compared with the inner wall (54a) of the speed change gear cooling pipe (52) along the vehicle width direction.

A mixed vale comprises a valve body provided with a first guide-in opening, a second guide-in opening and a guide-out opening; and a cylindraceous valve core rotatably embedded in the valve body. The circumferential wall of the valve core is provided with a first opening part and a second opening part corresponding to the first and second guide-in openings, and is provided with a third opening part over the first and second opening parts. When the valve core rotates, the first guide-in opening is made to all close status from all open status, and the second guide-in opening is made to all open status from all close status, when the valve core further rotates and the first guide-in opening is kept at all close status, the third opening part makes the opening area of the second guide-in opening become minimum from maximum continuously. Adopting the invention, a mixed valve with easy assembly and compact structure can be provided which can quickly and correctly obtain the warm water withrequired mixing proportion after mixed the cold water and the hot water, and can regulate the flux of water of one side when the guide-in opening of another side is at all close status.

The present invention provides a power conversion device capable of increasing the detection period of each phase current without increasing the size and cost of the device, and realizing high precision control based on each phase current. The power conversion device is provided with: a power supply shunt resistor (5), which is arranged between the negative voltage side of the DC power supply (1) and the inverter (2); and the lower bridge arm shunt resistors (6a, 6b) of each phase, They are respectively arranged between the switching elements (3d, 3e) of the lower bridge arms of each phase of two of the three bridge arms and the power supply shunt resistor (5), wherein the switching elements (3d, 3e) of the lower bridge arms of each phase 3e) and the voltages between the connection points of the lower arm shunt resistors (6a, 6b) of each phase and the negative voltage side of the DC power supply (1), and based on the detected values, calculate the flow into the load device (9 ) of each phase current.

Lamp realizing high brightness without increase in size, including: case 3 that is in conical shape, wherein LEDs 37 are installed on inner surface of bottom 5 of case 3; lens 13 that is smaller than case 3 in size and positioned in case 3 such that light emission face 63 of lens 13 is on opening side of case 3; cover 15 that is installed to cover opening of case 3 so that light emitted from face 63 is extracted to outside of lamp; base member 17 that is hollow inside and attached to outer surface of bottom 5 of case 3 to project toward outside; and lighting circuit 23 that receives electricity via base member 17, and causes LEDs 37 to emit light. Electronic parts 49, 51 and 99 constituting lighting circuit 23 are arranged in distribution in spaces of case 3 and base member 17.