Abstract: A cooling structure of a battery pack includes a battery case, an intake duct, and an intake port. The battery case houses a battery module and electronic equipment coupled to the battery module. The intake duct communicates with the battery case and is configured to send cooling air for cooling the battery module. The intake port is disposed in a top plate of the battery case and is configured to send the cooling air into the battery case. The intake duct is coupled to the top plate so as to communicate with the battery case via the intake port and extends from the intake port to an end of the top plate. The intake duct is provided with a bent part that is downwardly bent in a vicinity of the end of the top plate.

Abstract: A driving assist apparatus comprises a sensor for detecting an object located in front of a vehicle and moving in the same direction as the vehicle, and a controller for executing a brake control for applying a brake force to the vehicle during a time from a time point at which the obstacle satisfies a predetermined start condition to a time point at which a predetermined end condition is satisfied. The controller is configured to set a target stop distance such that the target stop distance increases as a relative speed of the object with respect to the vehicle increases when the controller executes the brake control, and apply the brake force so that the vehicle stops when a distance between the object and the vehicle coincides with the target stop distance.

Abstract: A cooling structure of a battery pack includes a battery case, an intake duct, and a blower. The battery case contains a battery module. The intake duct communicates with the battery case and is configured to send cooling air for cooling the battery module. The blower is configured to supply the cooling air to the intake duct. The intake duct has a bent section in which the cooling air that is sent from an upper side to a lower side is sent again from the lower side to the upper side. In the bent section of the intake duct, a vibration absorber is provided at least at a collision area to be collided with the cooling air.

Abstract: A printing apparatus includes a first roller pair configured to convey a continuous medium, a printing head that is located downstream of the first roller pair and that performs printing on the continuous medium, a cutting unit that is located downstream of the printing head and that is configured to cut the continuous medium, a second roller pair that is located downstream of the cutting unit and that is configured to convey the continuous medium, a common driving source configured to apply driving force to the first roller pair and the second roller pair, and a clutch mechanism configured to cut power from the driving source to the second roller pair, wherein the clutch mechanism is a one-way mechanism that transmits the power when the continuous medium is conveyed in a forward direction and does not transmit the power when the continuous medium is conveyed in a reverse direction.

Abstract: The standby power supply device includes one or more secondary batteries and a charging circuit that charges the secondary batteries. The charging circuit includes a voltage adjuster that controls the state of charge of the secondary batteries, and a controller that controls the voltage adjuster by detecting the degree of deterioration of the secondary batteries over time. In the charging circuit, the voltage adjuster charges the secondary batteries at a charge voltage lower than a full charge voltage of the secondary batteries to bring the secondary batteries into a load power supply standby state, and gradually increases the charge voltage of the secondary batteries according to the degree of deterioration of the secondary batteries detected by the controller.

Abstract: A liquid discharge device includes a discharge head configured to discharge a liquid on a medium conveyed, a carriage on which the liquid discharge head and a liquid cartridge are mounted configured to move in an X-axis direction, a cap disposed outside a conveying area in the X-axis direction, and configured to have contact with a nozzle surface of the discharge head on which a nozzle opens, and a control section configured to control moving of the carriage. When one of the replacement of the liquid cartridge and refill of the liquid container is performed, the control section locates the carriage at the first position where the nozzle surface is opposed to the area between the conveying area and the cap in the X-axis direction.

Abstract: A printing apparatus includes a first roller pair that sandwiches and conveys a continuous medium, a printing head that is located downstream of the first roller pair in a conveying direction of the continuous medium and that performs printing on the continuous medium, a cutting unit that is located downstream of the printing head in the conveying direction of the continuous medium and that cuts the continuous medium, a second roller pair that is located downstream of the cutting unit in the conveying direction of the continuous medium and that sandwiches and conveys the continuous medium, a common driving source that applies driving force to the first roller pair and the second roller pair, and a clutch mechanism configured to cut power from the driving source to the second roller pair, wherein the clutch mechanism is an electromagnetic mechanism that releases transmission of the power by electromagnetism.

Abstract: A printing apparatus includes a first roller pair configured to convey a continuous medium, a printing head that is located downstream of the first roller pair and that performs printing on the continuous medium, a cutting unit that is located downstream of the printing head and that is configured to cut the continuous medium, a second roller pair that is located downstream of the cutting unit and that is configured to convey the continuous medium, a common driving source configured to apply driving force to the first roller pair and the second roller pair, and a clutch mechanism configured to cut power from the driving source to the second roller pair, wherein the clutch mechanism is a one-way mechanism that transmits the power when the continuous medium is conveyed in a forward direction and does not transmit the power when the continuous medium is conveyed in a reverse direction.

Abstract: A printing apparatus includes a first roller pair that sandwiches and conveys a continuous medium, a printing head that is located downstream of the first roller pair in a conveying direction of the continuous medium and that performs printing on the continuous medium, a cutting unit that is located downstream of the printing head in the conveying direction of the continuous medium and that cuts the continuous medium, a second roller pair that is located downstream of the cutting unit in the conveying direction of the continuous medium and that sandwiches and conveys the continuous medium, a common driving source that applies driving force to the first roller pair and the second roller pair, and a clutch mechanism configured to cut power from the driving source to the second roller pair, wherein the clutch mechanism is an electromagnetic mechanism that releases transmission of the power by electromagnetism.

Abstract: A liquid discharge device includes a discharge head configured to discharge a liquid on a medium conveyed, a carriage on which the liquid discharge head and a liquid cartridge are mounted configured to move in an X-axis direction, a cap disposed outside a conveying area in the X-axis direction, and configured to have contact with a nozzle surface of the discharge head on which a nozzle opens, and a control section configured to control moving of the carriage. When one of the replacement of the liquid cartridge and refill of the liquid container is performed, the control section locates the carriage at the first position where the nozzle surface is opposed to the area between the conveying area and the cap in the X-axis direction.

Abstract: A method of manufacturing a liquid ejecting apparatus which includes a container holder on which a first liquid container and a second liquid container are detachably mounted, an nozzles for ejecting the liquid supplied from each of the liquid containers, and an adjuster that is disposed at a position covered by the first liquid container and not covered by the second liquid container, the method including: ejecting liquid by the nozzles in a state in which the second liquid container is mounted without the first liquid container being mounted; and adjusting the liquid ejecting apparatus by the adjuster based on an ejection result in the ejecting of the liquid.

Abstract: A method of manufacturing a liquid ejecting apparatus which includes a container holder on which a first liquid container and a second liquid container are detachably mounted, an nozzles for ejecting the liquid supplied from each of the liquid containers, and an adjuster that is disposed at a position covered by the first liquid container and not covered by the second liquid container, the method including: ejecting liquid by the nozzles in a state in which the second liquid container is mounted without the first liquid container being mounted; and adjusting the liquid ejecting apparatus by the adjuster based on an ejection result in the ejecting of the liquid.

Abstract: A medium transport method, which is performed by a medium transport device having a transport unit which includes rollers that can pinch a medium and which transports the medium, includes inserting the medium to a predetermined position, pressing a side end portion of the medium against a side surface guide, and pinching the medium with the rollers, and transports the medium.

Abstract: A medium transport method, which is performed by a medium transport device having a transport unit which includes rollers that can pinch a medium and which transports the medium, includes inserting the medium to a predetermined position, pressing a side end portion of the medium against a side surface guide, and pinching the medium with the rollers, and transports the medium.

Abstract: A protection circuit having: a connecting terminal for receiving a voltage for charging a rechargeable battery; a switching element interposed between the connecting terminal and the rechargeable battery; a temperature fuse for blocking a conductive path between the connecting terminal and the switching element; a heater for melting the temperature fuse; a voltage detection unit for detecting a voltage relating to the conductive path; a first abnormality detection unit for detecting occurrence of a first abnormality that is pre-set as a recoverable abnormality; a second abnormality detection unit for detecting occurrence of a second abnormality that is pre-set as an abnormality on the basis of which the temperature fuse should be melted; a protection control unit for turning OFF the switching element when the first abnormality is detected by the first abnormality detection unit; and a heater control unit for executing a temperature fuse melting process of applying the voltage of the conductive path to the hea

Abstract: When an original point position of a transport roller is detected using an original point detecting sensor and a downstream end in the transport direction of an elongated sheet is positioned on a more downstream side in the transport direction than a cutting position, the sheet is cut by a cutter. Thereafter, a correction chart is generated by driving the transport roller and a recording unit.

Abstract: A plurality of recording heads are individually assembled in a carriage in a serial type printer. A plurality of sets of patterns are printed at a plurality of sets of print timings while changing deviations of print timings of the recording heads. A numerical value corresponding to an optimally printed pattern with a small deviation among the plurality of sets of patterns is input. A control unit sets print timing corresponding to the input value.

Abstract: When an original point position of a transport roller is detected using an original point detecting sensor and a downstream end in the transport direction of an elongated sheet is positioned on a more downstream side in the transport direction than a cutting position, the sheet is cut by a cutter. Thereafter, a correction chart is generated by driving the transport roller and a recording unit.

Abstract: A protection circuit having: a connecting terminal for receiving a voltage for charging a rechargeable battery; a switching element interposed between the connecting terminal and the rechargeable battery; a temperature fuse for blocking a conductive path between the connecting terminal and the switching element; a heater for melting the temperature fuse; a voltage detection unit for detecting a voltage relating to the conductive path; a first abnormality detection unit for detecting occurrence of a first abnormality that is pre-set as a recoverable abnormality; a second abnormality detection unit for detecting occurrence of a second abnormality that is pre-set as an abnormality on the basis of which the temperature fuse should be melted; a protection control unit for turning OFF the switching element when the first abnormality is detected by the first abnormality detection unit; and a heater control unit for executing a temperature fuse melting process of applying the voltage of the conductive path to the hea

Abstract: A processing apparatus for subject of the present invention uses a high voltage electrode and a ground electrode, and generates plasma under atmospheric pressure in a reaction passage through which a to-be-processed subject passes. For example, even fluorocompound such as PFC including CF4 can effectively be decomposed because the fluorocompound is brought into contact with plasma in a small space for sufficient time, and the apparatus has a small and simple structure. Therefore, the apparatus can be added to each process chamber.