WO/2017/029699 CLAMPING DEVICE FOR WAX MODEL INJECTION MOLDING AND METHOD FOR MANUFACTURING WAX MODEL||WO||23.02.2017|
||PCT/JP2015/073015||EISHIN TECHNOLOGY CO., LTD||KUBO, Chikanari|
Disclosed are a clamping device that can reliably clamp a rubber mold 3 with a small clamping force F1, a clamping device by which easy determination of a clamping force F1 is possible, and a method for manufacturing a wax model. The clamping device has a mounting base 9 for mounting the rubber mold 3, a clamping plate 10, and a clamping force generator 11 for changing the position of the clamping plate 10 with respect to the mounting base 9 in the vertical direction, and the position of the clamping plate 10 with respect to the mounting base 9 in the vertical direction is fixed by a locking mechanism 20A. The locking mechanism 20A locks the position of the clamping plate 10 in a state wherein the rubber mold 3 is clamped between the mounting base 9 and the clamping plate 10.
WO/2017/029694 MOTOR DRIVING DEVICE AND REFRIGERATION CYCLE DEVICE||WO||23.02.2017|
||PCT/JP2015/072963||MITSUBISHI ELECTRIC CORPORATION||SHINOMOTO, Yosuke|
A motor driving device 100 according to the present invention is provided with an inverter main circuit 4 for outputting AC power to each of a plurality of phases of a motor 3 having the plurality of phases. When the current flowing to a first phase, which is one of the plurality of phases, is equal to or lower than a threshold value, the voltage of the AC power outputted to the first phase is equal to the voltage corresponding to the voltage command value for the first phase, and the voltage of the AC power outputted to a second phase from among the plurality of phases is lower or higher than the voltage corresponding to the voltage command value for the second phase.
WO/2017/029695 AIR-CONDITIONING DEVICE||WO||23.02.2017|
||PCT/JP2015/072966||MITSUBISHI ELECTRIC CORPORATION||NAJIMA, Kohei|
An air-conditioning device which melts a large amount of frost deposited thereon while maintaining the proper operation of a compressor by setting the defrosting operation time according to the low pressure of the compressor. This air-conditioning device has: a refrigerant circuit which has a compressor, a refrigerant flow path switching device, a heat-source-side heat exchanger, a throttle device, and a use-side heat exchanger being connected by refrigerant pipes, and configures a refrigeration cycle; a pressure sensor which detects the pressure on the intake side of the compressor; and a control device which, during defrosting operation, controls the refrigerant flow path switching device and supplies the compressed refrigerant from the compressor to the heat-source-side heat exchanger, compares the detection value of the compressor sensor and a first threshold value, and changes defrosting operation time on the basis of the comparison result.
WO/2017/029697 POWER SUPPLY SYSTEM||WO||23.02.2017|
||PCT/JP2015/072974||SFT LABORATORY CO., LTD.||ICHIGAYA Hiroshi|
Provided is a power supply system such that occurrences of problems caused by rotary movement of a cable pin-plug unit can be prevented. The power supply system (30) is used in air-conditioned clothing having two fans and is provided with a power supply device (100) for supplying power to the two fans and a power supply cable (200) connecting the two fans and the power supply device (100). The power supply cable (200) is provided with: two fan side cable parts (210) each connected to a fan; a power supply device side cable part (220) connected to the power supply device (100); and cable pin-plug parts (240) connected to the end parts of each of the two fan side cable parts (210) and the end part of the power supply device side cable part (220). The cable pin-plug parts (240) have a plug center electrode and a plug outside electrode formed so as to surround that plug center electrode. The cross-sectional shape of the plug center electrode is formed in a substantially circular shape, and the cross-sectional shape of the plug outside electrode is formed in a substantially elliptical shape.
WO/2017/029696 OUTDOOR UNIT FOR AIR CONDITIONER||WO||23.02.2017|
||PCT/JP2015/072967||MITSUBISHI ELECTRIC CORPORATION||TAKEUCHI, Yuto|
The present invention provides an outdoor unit for an air conditioner where it is possible to visually confirm the state of individual terminals of a switching element disposed on a control substrate and to avoid short-circuiting between each terminal. The outdoor unit for an air conditioner is provided with a body section, a semiconductor device having a plurality of terminals extending from the body section, a body securing section for supporting the body section, an element securing member protruding from the main securing body and having anti-short-circuiting walls enclosing the terminals so as to avoid short circuiting between the adjacent terminals, a control substrate attached to the semiconductor device and the element securing member, and a transparent insulating member disposed between the anti-short-circuiting walls and the body section so as to cover the terminals enclosed by the anti-short-circuiting walls.
WO/2017/029698 SIMULATION PROGRAM, SIMULATION METHOD, AND SIMULATION DEVICE||WO||23.02.2017|
||PCT/JP2015/072976||FUJITSU LIMITED||OHORI, Kotaro|
A simulation program (111) according to an embodiment of the present invention causes a computer (101) to perform a process (S2) for disposing one or more agents in a virtual space in which guidance information is provided, each of said one or more agents retaining recognized information and acting and moving around within the virtual space on the basis of the recognized information. Further, the simulation program causes the computer to perform a process (S25) for updating the recognized information retained by each agent, using guidance information that is provided on the basis of the location of the agent. Further, the simulation program causes the computer to perform a process (S23) for degrading the recognized information retained by each agent, on the basis of actions made by the agent and/or on the basis of one or more attributes of the agent.
WO/2017/029689 AXIAL-FLOW TURBINE||WO||23.02.2017|
||PCT/JP2015/004051||KABUSHIKI KAISHA TOSHIBA||MAEDA, Hideyuki|
The turbine (21) is equipped with: a casing (30); a turbine rotor (90) which is disposed inside the casing (30) so as to penetrate therethrough; rotor vanes (100) which are implanted along the circumference of the turbine rotor (90); an outer ring-side wall (40) which is supported on the casing (30); and an inner ring-side wall (50) which is disposed on the inner side of the outer ring-side wall (40) and which forms an annular opening (70) with the outer ring-side wall (40). The turbine (21) is further equipped with: stator vanes (60) which are disposed in a part of the area of the annular opening (70) in the circumferential direction and which are arranged in the axial direction of the turbine rotor in an alternating manner with the rotor vanes (100); a closure plate (80) which is disposed in the other area in the circumferential direction of the annular opening (70) and which closes the opening in the other area; and reinforcement plates (81) which are disposed toward the downstream side from a downstream-side end face of the closure plate (80).
WO/2017/029692 Porous Graphene Coated Oxygen-Containing Carbon Material for High Capacity and Fast Chargeable Anode of Lithium Ion Battery||WO||23.02.2017|
||PCT/JP2015/004102||NEC CORPORATION||CHENG, Qian|
An anode material for a lithium ion battery, comprising an oxygen-containing carbon where oxygen is in the form of functional groups, the oxygen being distributed from the surface to the inside of the carbon, and the carbon having an interlayer space d002 larger than 0.335 nm and less than 0.45 nm; and a porous graphene layer covering the oxygen-containing carbon, the graphene being in the form of monolayer or few-layer graphene.
WO/2017/029691 OPTICAL SCANNING METHOD, OPTICAL SCANNING DEVICE, AND OPTICAL SCANNING OBSERVATION DEVICE||WO||23.02.2017|
||PCT/JP2015/004088||OLYMPUS CORPORATION||FUJINUMA, Ken|
The optical scanning method according to the present invention includes a resonant frequency detection step (step S02) for detecting a resonant frequency at the tip of a pivotably supported fiber, a drive frequency determination step (step S03) for determining the drive frequency at the tip of the fiber on the basis of the detected resonant frequency, and a scanning step (step S04) for scanning light on an object by emitting light from the tip of the fiber while driving and vibrating the tip of the fiber at the determined drive frequency.
||PCT/JP2015/073239||FUJI MACHINE MFG. CO., LTD.||SAITO Shigeo|
A feeder (200) is provided with: a cutting/bending mechanism (241) which cuts off a tip section of a first lead (R1) and of a second lead (R2) of an axial part (P) in a parts tape (900) that is fed to a parts supply unit (212) by a feeding device (220), and bends the remaining tip section of the first lead 1 (R1) and of the second lead (R2); and a cutter/bender drive device (242) which is provided in a feeder main body (210) and which drives the cutting/bending mechanism (241). The cutting/bending mechanism (241) is a unit (unit mechanism 300) which is detachably attached to the feeder main body (210).