Abstract: A refrigeration cycle apparatus includes a main circuit and a bypass circuit. The main circuit includes: a compressor; a first condenser; a first refrigerant-to-refrigerant heat exchanger; a first expansion device; a first branching portion; a first evaporator; a third branching; and a fourth branching portion. The bypass includes: a second expansion device; the first refrigerant-to-refrigerant heat exchanger; and a second branching portion. The second branching portion includes a liquid outflow pipe and a gas outflow pipe. The liquid outflow pipe defines one outlet for the refrigerant and is located below the gas outflow pipe. The gas outflow pipe defines another outlet for the refrigerant and is located above the liquid outflow pipe. The one outlet of the second branching portion communicates with the third branching portion. The other outlet of the second branching portion communicates with the fourth branching portion.

Abstract: A refrigeration cycle device with a main circuit, a bypass circuit and a supercooling heat exchanger further includes: a controller to control an opening degree of the bypass expansion valve; a first sensor to detect a temperature at the refrigerant inflow side of the evaporator; and a second sensor to detect a pressure of the non-azeotropic mixed refrigerant flowing from the evaporator, wherein the controller controls the opening degree of the bypass expansion valve using temperatures of the evaporator, that is, the temperature at the refrigerant inflow side and a saturated gas temperature of the non-azeotropic mixed refrigerant calculated from the pressure so as to adjust a flow rate of the non-azeotropic mixed refrigerant flowing into the evaporator, to eliminate the temperature difference in the evaporator for suppressing uneven frost formation on the evaporator, and thus to prevent heat exchange performance from degrading.

Abstract: Provided is a motion recognition apparatus capable of individually recognizing motions performed using each body part. A motion recognition apparatus (10) includes: an acquisition unit (11) configured to acquire time series information regarding motions of an operator; a motion recognition unit (12) configured to recognize, on the basis of motion information that defines individual motions and the time series information, a motion of the operator corresponding to any one of the individual motions for each body part of the operator and generate a motion recognition result including a start time and an end time of the one of the individual motions corresponding to the recognized motion of the operator for each body part of the operator; and a display unit (13) configured to display the motion recognition result of each body part in a chronologically aligned manner on the basis of the generated motion recognition result.

Abstract: Provided is a motion recognition apparatus capable of individually recognizing motions performed using each body part. A motion recognition apparatus (10) includes: an acquisition unit (11) configured to acquire time series information regarding motions of an operator; a motion recognition unit (12) configured to recognize, on the basis of motion information that defines individual motions and the time series information, a motion of the operator corresponding to any one of the individual motions for each body part of the operator and generate a motion recognition result including a start time and an end time of the one of the individual motions corresponding to the recognized motion of the operator for each body part of the operator; and a display unit (13) configured to display the motion recognition result of each body part in a chronologically aligned manner on the basis of the generated motion recognition result.

Abstract: An element operation division device includes: acquisition unit that acquires time-series information relating to action of operator; detection unit that detects, from the time-series information, target action determined in advance in order that the target action is judged to correspond to action of contacting or separating parts; generation unit that associates action information indicating the detected target action with occurrence time of the target action and identification information of the parts to generate target action information; storage unit that stores element operation information generated by associating start action information of starting each element operation and end action information of ending each element operation with each element operation; and output unit that outputs, based on the target action information and the element operation information, data in which start time and end time of each element operation are associated with this element operation for each piece of identification

Abstract: A liquid treating device includes a liquid guide cylinder having liquid suction and ejection ports, a liquid supply unit that supplies liquid to the liquid suction port, a pumping-up unit that is provided within the liquid guide cylinder and suctions liquid from the liquid suction port and ejecting liquid from the liquid ejection port, a liquid ejection space part that enlarges liquid, which has been ejected from the liquid ejection port by the pumping-up unit, in an upper part of a closed tank, a gas supply unit that supplies gas in the liquid ejection space part under pressure, a reflux passage that circulates liquid from the liquid ejection space part through space between the tank and the liquid guide cylinder to a lower part of the liquid guide cylinder, and treated liquid taking-out piping that takes out treated liquid from a lower part of the tank to an exterior.

Abstract: A liquid treating device includes a liquid guide cylinder having liquid suction and ejection ports, a liquid supply unit that supplies liquid to the liquid suction port, a pumping-up unit that is provided within the liquid guide cylinder and suctions liquid from the liquid suction port and ejecting liquid from the liquid ejection port, a liquid ejection space part that enlarges liquid, which has been ejected from the liquid ejection port by the pumping-up unit, in an upper part of a closed tank, a gas supply unit that supplies gas in the liquid ejection space part under pressure, a reflux passage that circulates liquid from the liquid ejection space part through space between the tank and the liquid guide cylinder to a lower part of the liquid guide cylinder, and treated liquid taking-out piping that takes out treated liquid from a lower part of the tank to an exterior.

Abstract: A method of manufacturing a cylindrical member having anti-slip projections formed on axial end faces, the method comprising the steps of: employing a roller die, which is provided with a circumferential die groove of annular form extending through a medial section in a generatrix direction of a die face defined by an integral tapered outside peripheral face, and with a plurality of sloping die grooves extending in a tapered slope direction of the die face situated to both large-diameter and small-diameter sides of the circumferential die groove; providing plastic working to the axial end face with the small-diameter side of the roller die facing towards an inner peripheral side of the cylindrical member and with the large-diameter side facing towards an outer peripheral side, by pushing the die face against the axial end face while rotating circumferentially; and forming simultaneously an annular water barrier projection and the anti-slip projections.

Abstract: A method of manufacturing a cylindrical member having anti-slip projections formed on axial end faces, the method comprising the steps of: employing a roller die, which is provided with a circumferential die groove of annular form extending through a medial section in a generatrix direction of a die face defined by an integral tapered outside peripheral face, and with a plurality of sloping die grooves extending in a tapered slope direction of the die face situated to both large-diameter and small-diameter sides of the circumferential die groove; providing plastic working to the axial end face with the small-diameter side of the roller die facing towards an inner peripheral side of the cylindrical member and with the large-diameter side facing towards an outer peripheral side, by pushing the die face against the axial end face while rotating circumferentially; and forming simultaneously an annular water barrier projection and the anti-slip projections.

Abstract: A beverage dispenser for ejecting a beverage into a receptacle, including a housing including a taking-in/out space, nozzles provided in the beverage dispenser for ejecting the beverage, obstacle detection module for detecting an obstacle around the nozzle, alarm generator for issuing an alarm when the detection module detects the obstacle, and a nozzle cover for covering the plurality of nozzles and the obstacle detection module to partially close the taking-in/out space. The alarm may not be issued from the alarm means when the beverage is ejected or a switch may be provided for causing the alarm generator inoperative. Thereby, those around the dispenser are informed of the fact that an operator has had unauthorized access to the nozzle in the beverage dispenser.

Abstract: A semiconductor integrated circuit device is provided in which (i) inspection pads are arranged along one side or two opposite sides of the semiconductor integrated circuit device for bonding pads arranged along the sides other than the side or the two opposite sides and (ii) the bonding pads are connected to their respective inspection pads by connection wires The inspection is carried out by applying probe needles to the pads (inspection pads and bonding pads) arranged only along one side or two opposite sides of the semiconductor integrated circuit device. The invention also provides a semiconductor integrated circuit package with leads on four sides includes a semiconductor integrated circuit device with bonding pads laid along one pair of opposite sides of the four sides, and a table for supporting the semiconductor integrated circuit device.

Abstract: A liquid treating device without any restrictions for a sludge discharge device set above a liquid tank is provided. A cyclone separator adapted to swirl liquid to subject sludge to centrifugal separation from the liquid and precipitate the sludge is connected to the circulating pump adapted to pump up liquid coolant containing the sludge discharged to a liquid tank from a machine tool. An opening/closing valve for sludge discharge is arranged at a discharge port of a sludge pot adapted to condense the sludge precipitated by the cyclone separator. A sludge discharge device to discharge only the sludge to the exterior from a sludge storage tank part adapted to store the sludge and liquid discharged from the sludge pot via the opening/closing valve temporarily is set. A supernatant liquid stored in the sludge storage tank part of the sludge discharge device in the suction side of the pump is recovered.

Abstract: A beverage dispenser (10) is provided, for ejecting a beverage into a receptacle, including nozzles (27, 28) provided in the beverage dispenser for ejecting the beverage, obstacle detection means (50) for detecting an obstacle around the nozzle, and alarm means (60) for issuing an alarm when the detection means detects the obstacle. The alarm may not be issued from the alarm means when the beverage is ejected or a switch (56) may be provided for causing the alarm means inoperative. Thereby, those around the dispenser are informed of the fact that the operator or a man of evil intention has had access to the nozzle in the beverage dispenser.

Abstract: Using the filter auxiliary agent separated by backwashing from a filter element repeatedly and effectively, the consumption amount of a filter auxiliary agent and the generation of industrial waste can be suppressed. In a filter auxiliary agent pre-coat circuit, a filter auxiliary agent in a pre-coat tank is attached and stacked on a filter element in a filter case, and a filter auxiliary agent layer is formed. In a filter circuit, the filter auxiliary agent layer of the filter element removes sludge in the filter treatment liquid in a main tank. A backwashing circuit breaks down the filter auxiliary agent layer and a sludge layer, separates the filter auxiliary agent layer and the sludge layer by backwashing from the filter element, and circulates to the pre-coat tank. After repeating these steps a plurality of times, the filter auxiliary agent and sludge separated by backwashing are taken out to the exterior.

Abstract: A remote controller has a sliding switch which has more than two contacting positions linearly disposed, and a sliding lever to switch among the contacting positions. A slider engaged with the sliding lever and the slider has an angle portion. A first cam piece has a first V-shaped notch to fit the angle portion of the slider. The first cam piece corresponds to one or two of the contacting positions located in a central portion of the sliding switch. A second cam piece has a second V-shaped notch to fit the angle portion. The second cam piece corresponds to two of the contacting positions located on side portions of the sliding switch.

Abstract: Using the filter auxiliary agent separated by backwashing from a filter element repeatedly and effectively, the consumption amount of a filter auxiliary agent and the generation of industrial waste can be suppressed. In a filter auxiliary agent pre-coat circuit, a filter auxiliary agent in a pre-coat tank is attached and stacked on a filter element in a filter case, and a filter auxiliary agent layer is formed. In a filter circuit, the filter auxiliary agent layer of the filter element removes sludge in the filter treatment liquid in a main tank. A backwashing circuit breaks down the filter auxiliary agent layer and a sludge layer, separates the filter auxiliary agent layer and the sludge layer by backwashing from the filter element, and circulates to the pre-coat tank. After repeating these steps a plurality of times, the filter auxiliary agent and sludge separated by backwashing are taken out to the exterior.

Abstract: A liquid treating device without any restrictions for a sludge discharge device set above a liquid tank is provided. A cyclone separator adapted to swirl liquid to subject sludge to centrifugal separation from the liquid and precipitate the sludge is connected to the circulating pump adapted to pump up liquid coolant containing the sludge discharged to a liquid tank from a machine tool. An opening/closing valve for sludge discharge is arranged at a discharge port of a sludge pot adapted to condense the sludge precipitated by the cyclone separator. A sludge discharge device to discharge only the sludge to the exterior from a sludge storage tank part adapted to store the sludge and liquid discharged from the sludge pot via the opening/closing valve temporarily is set. A supernatant liquid stored in the sludge storage tank part of the sludge discharge device in the suction side of the pump is recovered.

Abstract: First and second inspection stages 2 and 3 are rotatably configured and provided with four A-side inspection suction tables 22 and four B-side inspection suction tables 32. Distances between A- and B-side inspection suction tables 22 and 32 and their corresponding rotary shaft are changed by extension/contraction operations of air cylinders 23 and 33. A board S in a board supply section 7 is sucked and fixed onto an A-side inspection suction table 22, and passed to the second inspection stage 3 after an image of the A-side thereof is captured by an A-side inspection head 4. The board S is sucked and fixed onto the B-side inspection suction table 32, and ejected to a board receiving section 8 after an image of the B-side thereof is captured by a B-side inspection head 5. A board inspection apparatus 1 performs the above processes in parallel.

Abstract: A board picking up apparatus of the present invention protrudes an adhesive member arm 73 into a board case 71 with an adhesive member 74 facing downward (step S51), and brings an upper surface of a board S placed on the top of the loaded boards S into contact with the adhesive member 74 (step S52). Then, a lifting table 72 moves downward (step S53), thereby protruding the other end of an interposing member 76 into the board case 71 (step S54). Thus, the other end of the interposing member 76 is inserted into a gap between the top board S and the other boards S, and the top board S is suctioned by an A-side inspecting suction table 22 (step S58).