Abstract: [OBJECTS] An object of the present invention is to provide a lithium-ion-conductive ceramic material having a target ion conductivity, while suppressing production cost. Another object is to provide a high-performance lithium battery, while suppressing production cost, by virtue of having the lithium-ion-conductive ceramic material. The lithium-ion-conductive ceramic material contains Li, La, and Zr, as well as at least one of Mg and A (wherein A represents at least one element selected from the group consisting of Ca, Sr, and Ba) and which has a garnet-type crystal structure, wherein the elements contained in the ceramic material satisfy the following mole ratio conditions (1) to (3): (1) 1.33?Li/(La+A)?3; (2) 0<Mg/(La+A)?0.5; and (3) 0<A/(La+A)?0.67, and a lithium battery employing the ceramic material.

Abstract: [OBJECTS] An object of the present invention is to provide a lithium-ion-conductive ceramic material having a target ion conductivity, while suppressing production cost. Another object is to provide a high-performance lithium battery, while suppressing production cost, by virtue of having the lithium-ion-conductive ceramic material. [MEANS FOR SOLUTION] The invention provides a lithium-ion-conductive ceramic material which contains Li, La, and Zr, as well as at least one of Mg and A (wherein A represents at least one element selected from the group consisting of Ca, Sr, and Ba) and which has a garnet-type crystal structure, wherein the elements contained in the ceramic material satisfy the following mole ratio conditions (1) to (3): (1) 1.33?Li/(La+A)?3; (2) 0<Mg/(La+A)?0.5; and (3) 0<A/(La+A)?0.67, and a lithium battery employing the ceramic material.

Abstract: A drive device for controlling an electric motor, including a processor, and a non-transitory storage medium containing program instructions, execution of which by the process causes the drive device to provide functions of a customization unit and a core unit. The customization unit receives, from an external device, a command value designating an operating state of the electric motor, converts the command value using a predetermined reference value, and outputs the converted command value. The core unit receives the converted command value from the customization unit, recovers a physical quantity from the received converted command value, and controls the electric motor in accordance with the recovered physical quantity.

Abstract: A drive device for controlling an electric motor, including a processor, and a non-transitory storage medium containing program instructions, execution of which by the process causes the drive device to provide functions of a customization unit and a core unit. The customization unit receives, from an external device, a command value designating an operating state of the electric motor, converts the command value using a predetermined reference value, and outputs the converted command value. The core unit receives the converted command value from the customization unit, recovers a physical quantity from the received converted command value, and controls the electric motor in accordance with the recovered physical quantity.

Abstract: Provided is a ground flare in which a low-frequency vibration generated from a ground flare tower, such as a chimney, is properly adjusted to suppress it below a fixture-vibration generation limit, thereby preventing surrounding objects from resonating and vibrating. In a ground flare that burns a flammable exhaust gas with a burner at the lower end of a chimney, in which the lower end of the chimney and the periphery of the burner are surrounded by a windbreak, the low-frequency-noise sound pressure level of a ground flare tower composed of the chimney and the windbreak is reduced by selecting at least one of changing a natural frequency generated from the ground flare tower, using multiple ground flare towers, and installing a low-frequency-vibration absorber in the ground flare tower.

Abstract: A data controller having a data control function and an image read function is added to a printer. A print data prepared by a host can be normally printed and a read image can also be printed without the intervention of the host for enabling a local copy of the original image. Normally packet communications are conducted between the data controller and the printer and a response is made to a status request, etc., sent from the host to the printer in real time. To make a local copy, packet communications are not conducted and data is sent at command level from the data controller to the printer, thereby increasing the processing speed.

Abstract: A printer-control-only hardware circuit (control circuit) is interposed between a printer driver of a host computer and a printer. The printer driver transmits to the control circuit a series of control circuit commands for use with the control circuit. The series of control circuit commands include several types of commands, such as a backend parameter setting command used for sending a backend parameter which is required for resetting the printer and an RGB data transmission command for the purpose of transmitting full-color RGB raster data. The control circuit identifies the types of control circuit command received. If the control circuit command is a backend parameter setting command, the backend parameter is stored in the command buffer within a memory device.