Abstract: A vehicle door control device is provided to a vehicle including a door and a drive device. The vehicle door control device executes door control processing when the door moves in a closing direction from a stopped state in a state where a closing operation command signal for commanding a closing operation of the door is not received. In the door control processing, the vehicle door control device executes a braking mode, in which a braking force is applied to the door by regenerative braking action of a motor, when the door opening degree is less than the determination opening degree, and executes a closing operation mode, in which the door performs the closing operation such that a moving speed of the door is constant, when the door opening degree is equal to or greater than the determination opening degree.

Abstract: An electrostatic separation method includes: applying voltage between a lower electrode at a bottom portion of or in the raw material layer and an upper electrode above the raw material layer, generating an electric field between electrodes; fluidizing the raw material layer and bringing conductive particles and the lower electrode into contact in the raw material layer charging only the conductive particles wherein their polarity becomes the same as the lower electrode; generating polarity, the same as the upper electrode, by dielectric polarization on a conveyor belt downward-facing conveyance surface passing through a capture region above the raw material layer and under the upper electrode, the conveyance surface including a nonconductor; separates charged conductive particles from the raw material layer surface by electrostatic force and adhering conductive particles to the conveyor belt conveyance surface; and separating and collecting the particles from the conveyance surface that moved outside the ele

Abstract: A microfluidic test system is disclosed. The system includes a test substrate including parallel channels and reaction chambers. The reaction chambers are adapted to accommodate optical transmittance, absorbance and reflectance testing. The movement of the fluid within the system is controlled and synchronized in real time with the optical measurements of the reagents and analytes within each individual reaction chamber. The optical testing of each reaction chamber is customized regarding the color and intensity of the source light. The system includes an easy-to-use applicator for the capture of the test fluid and a fully automated measurement and test system. The microfluidic test system may be incorporated into clothing or apparel such as in a diaper. A device and method are also disclosed.

Abstract: A nebulizer kit includes: a housing body that houses an atomization portion configured to atomize a liquid and includes a first opening portion and a second opening portion; and a mouthpiece in which a first attachment portion including a first check valve and configured to be attachable to and detachable from the first opening portion and a tubular second attachment portion including a second check valve and configured to be attachable to and detachable from the second opening portion are integrally configured. An inhalation attachment different from the mouthpiece is attachable to the second opening portion in a state in which the mouthpiece is removed from the housing body.

Abstract: A microfluidic test system is disclosed. The system includes a test substrate including parallel channels and reaction chambers. The reaction chambers are adapted to accommodate optical transmittance, absorbance and reflectance testing. The movement of the fluid within the system is controlled and synchronized in real time with the optical measurements of the reagents and analytes within each individual reaction chamber. The optical testing of each reaction chamber is customized regarding the color and intensity of the source light. The system includes an easy-to-use applicator for the capture of the test fluid and a fully automated measurement and test system. The microfluidic test system may be incorporated into clothing or apparel such as in a diaper. A device and method are also disclosed.

Abstract: A microfluidic test system is disclosed. The system includes a test substrate including parallel channels and reaction chambers. The reaction chambers are adapted to accommodate optical transmittance, absorbance and reflectance testing. The movement of the fluid within the system is controlled and synchronized in real time with the optical measurements of the reagents and analytes within each individual reaction chamber. The optical testing of each reaction chamber is customized regarding the color and intensity of the source light. The system includes an easy-to-use applicator for the capture of the test fluid and a fully automated measurement and test system. The microfluidic test system may be incorporated into clothing or apparel such as in a diaper. A device and method are also disclosed.

Abstract: A method of making a cell sheet comprising secondary spheroids, including (a) obtaining cardiosphere-derived cells; (b) cultivating the cardiosphere-derived cells for a first period of time in a first media comprising at least one of an ascorbic acid and an analog thereof, to form secondary spheroids; (c) transferring an amount of the spheroids formed in step (b) into a mold; (d) culturing the secondary spheroids for a second period of time in a second media comprising at least one of the ascorbic acid and an analog thereof, wherein the at least one of the ascorbic acid and an analog thereof is present in an amount effective to promote a formation of an extracellular matrix; and (e) culturing a product obtained in step (d) for a third period of time, in the absence of the at least one of the ascorbic acid and an analog thereof.

Abstract: A foam-based dog bed with no loose fiber comprising 5 components: 4 identical bolsters and 1 internal mattress is described. Both the internal mattress and bolsters may be comprised of 2-layers of different foam qualities. The foam pieces are wrapped in foam sheaths to make stuffing and un-stuffing into the outer fabric cover easier. The outer fabric cover is comprised of a top fabric, border fabric and bottom fabric. The top fabric incorporates specifically tailored wrinkles to allow a dog to dig, scratch, and prepare their bed. On the bottom panel of the dog bed is an outer perimeter zipper. The outer zipper starts and stops at a zipper pocket, which also serves as a hinge to open/close the bottom panel. The zipper pocket holds the zipper pull to prevent a dog from biting at it.