Abstract: A fuel cell module includes a container and a plurality of cell members radially arranged inside the container. Inside the container, a first fluid flow path through which a first fluid that exchanges heat with an inner portion of the plurality of cell members flows is formed, and a second fluid flow path through which a second fluid that exchanges heat with an outer portion of the plurality of cell members flows is formed. A first heat exchange portion that forms the first fluid flow path and exchanges heat with the cell member has a smaller heat transfer area with the cell member than a second heat exchange portion that forms the second fluid flow path and exchanges heat with the cell member. The first fluid having a larger temperature difference with the cell member than the second fluid flows in the first fluid flow path.

Abstract: The suspension assembly mounting method includes: a step of mounting the suspension assembly on a pallet having a support body and a movable member relatively movable with respect to the support body, so as to fix the base body to the support body and engage the arm member with the movable member; a step of causing the movable member to press the arm member upward so that the suspension assembly becomes a position where its own weight load equivalent to the vehicle body weight is applied; a step of lifting the pallet from under the vehicle body and contacting the suspension assembly to the vehicle body; a step of raising the pallet while stopping the movable member from pressing after the contacting; and a vehicle mount step of mounting the suspension assembly on the vehicle body while causing the movable member to press the arm member upward.

Abstract: A radio receiver, configured to use an impulse UWB, includes: a reception antenna which receives the impulse UWB, a reception unit which amplifies the received impulse UWB and detects an envelope of the impulse UWB, maximum-peak and minimum-peak detection units which detect a maximum value and minimum value of the envelope, respectively, a comparator which acquires signal data from the envelope with an initial threshold value, a baseband unit which measures an error rate of the signal data, an MPU which calculates a correction value based on the error rate, and an arithmetic unit which calculates a corrected threshold value based on the maximum, minimum and correction values. The arithmetic unit transmits the corrected threshold value to the comparator. The comparator acquires the signal data from the envelope based on the corrected threshold value transmitted from the arithmetic unit.

Abstract: A radio receiver, configured to use an impulse UWB, includes: a reception antenna which receives the impulse UWB, a reception unit which amplifies the received impulse UWB and detects an envelope of the impulse UWB, maximum-peak and minimum-peak detection units which detect a maximum value and minimum value of the envelope, respectively, a comparator which acquires signal data from the envelope with an initial threshold value, a baseband unit which measures an error rate of the signal data, an MPU which calculates a correction value based on the error rate, and an arithmetic unit which calculates a corrected threshold value based on the maximum, minimum and correction values. The arithmetic unit transmits the corrected threshold value to the comparator. The comparator acquires the signal data from the envelope based on the corrected threshold value transmitted from the arithmetic unit.

Abstract: The suspension assembly mounting method includes: a step of mounting the suspension assembly on a pallet having a support body and a movable member relatively movable with respect to the support body, so as to fix the base body to the support body and engage the arm member with the movable member; a step of causing the movable member to press the arm member upward so that the suspension assembly becomes a position where its own weight load equivalent to the vehicle body weight is applied; a step of lifting the pallet from under the vehicle body and contacting the suspension assembly to the vehicle body; a step of raising the pallet while stopping the movable member from pressing after the contacting; and a vehicle mount step of mounting the suspension assembly on the vehicle body while causing the movable member to press the arm member upward.

Abstract: Compositions and method are disclosed comprising ethyl icosapentate for use in treatment of non-alcoholic steatohepatis (NASH).

Abstract: A workpiece mounting system mounts a sunroof member to an inner panel of a body. The workpiece mounting system is provided with a first robot, a second robot, and a control device for controlling the first and second robots. The control device performs a step of calculating as positional information the position of the sunroof member and the position of the inner panel by a CCD camera of the first robot, a step of holding and conveying the sunroof member by the first robot on the basis of the positional information and positioning the sunroof member relative to the inner panel, a step of temporarily fixing the sunroof member to the inner panel by the first robot, and a step of finally fixing the sunroof member to the inner panel by the second robot on the basis of the already calculated positional information.

Abstract: Compositions and method are disclosed comprising ethyl icosapentate for use in treatment of non-alcoholic steatohepatis (NASH).

Abstract: Compositions and method are disclosed comprising ethyl icosapentate for use in treatment of non-alcoholic steatohepatitis (NASH).

Abstract: Compositions and method are disclosed comprising ethyl icosapentate for use in treatment of non-alcoholic steatohepatitis (NASH).

Abstract: A workpiece mounting system which is highly versatile and can reduce a cycle time. A workpiece mounting system (1) mounts a sunroof member (3) to an inner panel (2A) of a body (2). The workpiece mounting system (1) is provided with a first robot (5), a second robot (6), and a control device (7) for controlling the first and second robots.

Abstract: A work aligning system capable of easily altering the kind of works to be aligned. The work aligning system (1) comprises a storage device (10) in which nuts (11) are stored, a take-out base (30) on which the nuts (11) are placed, and a robot (20) for grasping and taking out the nuts from the take-out base (30) and aligning the nuts. An electromagnet (53) is provided at the tip end of the robot arm (23) of the robot (20). The storage device (10) is equipped with a plurality of buckets (131-134) in which nuts (11) of different kinds are stored, and a feed screw mechanism (14) for moving one bucket selected from the plurality of buckets (131-134) to a position near the take-out base (30). The take-out base (30) is equipped with a part (31) on which the nuts (11) are placed and a drive device (32) for discharging the nuts (11) on the part (31) to one bucket selected from the plurality of buckets (131-134).

Abstract: Provided is a work measuring method by which a deviation quantity of a work measuring point from a reference position can be measured in a short time. A work surface is set as a reference point when the measuring point is positioned at the reference position, and a distance from a photographing device to a reference surface is set as a reference distance. A deviation quantity of the measurement point in a direction intersecting a photographing direction on the reference surface is measured by the photographing device, and a deviation quantity of the measuring point in the photographing direction is measured by a laser distance sensor. Then, based on the deviation quantity measured by the photographing device, the deviation quantity measured by the laser distance sensor, and the reference distance, a deviation quantity of the measuring point in a direction intersecting the photographing direction is calculated.

Abstract: Provided is a work assembling system (1) comprising a manpower working area (30A) for transferring bodies (10) continuously, a robot working area (40) disposed on the downstream of the manpower working area (30A) for tact-transferring the bodies (10), and a first buffer space (50A) disposed at a boundary portion between the manpower working area (30A) and the robot working area (40).

Abstract: Arbitrary pieces of semiconductor wafers are supported flexibly on either the upper side or the lower side. The present invention is a thin plate container for supporting plural semiconductor wafers for use in carriage, storage, processing, etc. It comprises processing trays plurally stacked in a state of each supporting at least one semiconductor wafer individually and a coupling mechanism for integrally coupling the processing trays in a state where the processing trays are plurally stacked and separating the processing trays at an arbitrary location. Each processing tray has a one-side support for supporting at least one semiconductor wafer on its one side and the other-side support mutually fitted to the one-side support of the other processing tray on the other side to form a housing space sealed off from the external environment for constraining and supporting the thin plate.

Abstract: A semiconductor manufacturing system includes a semiconductor manufacturing apparatus, a first controller for controlling the semiconductor manufacturing apparatus, an auxiliary machine for the semiconductor manufacturing apparatus, a second controller for controlling the auxiliary machine, and a third controller for electrically coupling the first and second controllers. The second controller outputs an auxiliary machine-in-operation signal to the third controller when the auxiliary machine is operating, outputs an auxiliary machine-stopping signal to the third controller when the auxiliary machine is stopping, and operates or stops the auxiliary machine according to an instruction signal received from the third controller.

Abstract: A method of installing a door glass (15) on a vehicle door (16). The door glass is tilted relative to the front-rear direction of a vehicle to reduce the length in the front-rear direction of the door glass. The tilted door glass is lowered to position it between a pair of sashes (121, 122) provided at the front and rear of the vehicle door. The tilt of the door glass is corrected to a predetermined level to fit the door glass into the front and rear sashes and then the door glass is lowered.

Abstract: A workpiece mounting system which is highly versatile and can reduce a cycle time. A workpiece mounting system (1) mounts a sunroof member (3) to an inner panel (2A) of a body (2). The workpiece mounting system (1) is provided with a first robot (5), a second robot (6), and a control device (7) for controlling the first and second robots.

Abstract: A semiconductor manufacturing system includes a semiconductor manufacturing apparatus, a first controller for controlling the semiconductor manufacturing apparatus, an auxiliary machine for the semiconductor manufacturing apparatus, a second controller for controlling the auxiliary machine, and a third controller for electrically coupling the first and second controllers. The second controller outputs an auxiliary machine-in-operation signal to the third controller when the auxiliary machine is operating, outputs an auxiliary machine-stopping signal to the third controller when the auxiliary machine is stopping, and operates or stops the auxiliary machine according to an instruction signal received from the third controller.

Abstract: Provided is a work measuring method by which a deviation quantity of a work measuring point from a reference position can be measured in a short time. A work surface is set as a reference point when the measuring point is positioned at the reference position, and a distance from a photographing device to a reference surface is set as a reference distance. A deviation quantity of the measurement point in a direction intersecting a photographing direction on the reference surface is measured by the photographing device, and a deviation quantity of the measuring point in the photographing direction is measured by a laser distance sensor. Then, based on the deviation quantity measured by the photographing device, the deviation quantity measured by the laser distance sensor, and the reference distance, a deviation quantity of the measuring point in a direction intersecting the photographing direction is calculated.