Abstract: A processing unit of a command generation device which is provided separately from a general-purpose inverter, performs following processing. A rotation calculation unit calculates a value relating to a rotation of a rotor of a virtual power generator when the virtual power generator is driven according to an active power command based on a rotor model that simulates a driving of the virtual power generator and calculates a value relating to the rotation of the rotor of the virtual power generator and an active power command. A target determination unit determines a target value of a voltage frequency and a target value of an active power based on the calculated value relating to the rotation. A command generation unit generates a control command for the inverter based on the determined target value of the voltage frequency and the target value of the active power.

Abstract: A hybrid electric vehicle includes an engine, a motor, a clutch provided between the engine and the motor, a battery for charging regenerative electric power of the motor, and a control device that controls the engine, the motor, and the clutch. The control device includes a charge determination unit that determines whether the battery is chargeable when there is a deceleration request, and a deceleration control unit that executes, in a negative determination, a first deceleration process to decelerate the hybrid electric vehicle by friction torque of the engine, and executes, in a positive determination, a second deceleration process to decelerate the hybrid electric vehicle by regenerative torque of the motor. In the second deceleration process, the deceleration control unit causes the motor to output the friction torque at a rotational speed of the engine corresponding to a rotational speed of the motor as the regenerative torque.

Abstract: A film contains a siloxane compound having an alkyl group and a resin having a density of 1.1 g/cm3 or higher and a glass transition temperature of 150° C. or higher.

Abstract: Systems, methods, and other embodiments described herein relate to multiple three-dimensional (3D) structures formation from a network of circularly-packed structural elements. In one embodiment, a system includes a circularly-packed network of structural elements that form multiple 3D structures. Diameters of the structural elements define a shape of the 3D structures. The circularly-packed network is adaptable to form 1) a first 3D structure and 2) a second 3D structure with a different shape than the first 3D structure. The system also includes a set of joints that connect adjacent structural elements.

Abstract: A shape-morphing structure includes a cold draw programmable grayscale digital light processing 3D printed unitary hinge component comprising at least one glassy state portion and at least one rubbery state portion. The at least one glassy state portion has a glassy state recovery temperature and the at least one rubbery state portion has a rubbery state recovery temperature and different than the glassy state recovery temperature.

Abstract: A transfer device includes an intermediate transfer belt having a surface to which a toner image may be transferred and solid lubricant particles are attached, a primary transfer member performing primary transfer of a toner image to the surface of the intermediate transfer belt, a secondary transfer member performing secondary transfer of the toner image to a surface of a recording medium, and a detection device detecting a density of the toner image and has a light irradiation unit irradiating the surface of the intermediate transfer belt and a light receiving unit receiving reflected light, in which a relationship between a volume-average particle size A (nm) of the solid lubricant particles attached to the surface of the intermediate transfer belt and a wavelength B (nm) of the light radiated from the light irradiation unit satisfies the following Expression: Expression 1:B>A×8.6+300.

Abstract: A head-up display device that projects display light onto a windshield of a manned vehicle and directs the display light reflected by the windshield toward the observer's eyes to form a virtual image in front of the observer's eyes, includes: an image emitting unit for forming parallel light beams different in angle at each location on the image and emit the light beams as display light; a light guide for emitting the light beams as the display light by expanding the light beams while maintaining the parallelism thereof; and a correcting lens arranged on an optical path between the light guide and the windshield. The correcting lens has a curved surface shape that deflects a light transmission direction according to a curved surface shape of a reflective surface of the windshield so that the display light becomes parallel after being reflected by the windshield.

Abstract: A support structure for supporting a flat inverter located between seats aligned along the vehicle width direction is provided. A bracket supports the inverter in a horizontal position above a floor tunnel of a floor between the seats in a passenger compartment such that it is spaced apart from the floor tunnel. The bracket has a pair of rear leg portions aligned along the vehicle width direction. Middle parts of the pair of rear leg portions are formed so as to be easily bent outward or inward in the vehicle width direction. When a load is applied to the bracket due to movement of the seats during a side impact on the vehicle, the pair of rear leg portions bend, and the horizontal position of the inverter is disrupted.

Abstract: A body can be configured to be selectively morphable. One or more body support members can be operatively connected to an outer surface of the body. The one or more body support members can be arranged in a pattern to define at least one morphing region. A contracting member (e.g., a shape memory polymer) can be operatively connected to the outer surface of the body. When activated, the contracting member can contract, which can cause the body to morph (e.g., bend) from a non-activated configuration into an activated configuration.

Abstract: Provided is an antenna device for a vehicle including an antenna base including a bottom surface portion, a circuit board disposed above the bottom surface portion to face the bottom surface portion, and an antenna element disposed on an outer periphery, and forming a slot antenna with a side end of the antenna base being a facing side of a slot.

Abstract: A 3D printed physical information storage unit includes a grayscale digital light processing (g-DLP) 3D printed monolithic component formed from a resin containing a donor moiety, an acceptor moiety, a rigid moiety, a photoinitiator, and a photoabsorber. The g-DLP 3D printed monolithic component has a first portion with a first Young's modulus and a second portion with a second Young's modulus that is different than the first Young's modulus such that the g-DLP 3D printed monolithic component subjected to a predefined strain exhibits a strain field that provides a machine readable optical image.

Abstract: The present disclosure relates to an actuator and a prosthesis that can propose an actuator and a prosthesis that can downsize a device. An actuator includes: a leaf spring that includes a bent portion bent in a U shape and a first extending portion extending from the bent portion, a first one end portion that is an end portion of the first extending portion on a side of the bent portion being cantilevered, the first extending portion being bendable and deformable in a plate thickness direction according to torque by transmitting the torque; and a first support member that supports a part of the first extending portion on a bending direction side in a case where torque transmitted in a first direction by the first extending portion is larger than a predetermined value. The present technology can be applied to, for example, a prosthesis.

Abstract: A display device includes an image display element, a collimator, a first light guide formed of a flat plate transparent to light, a second light guide formed of a plate member transparent to the light and having one surface that is a flat surface in contact with one of surfaces of the first light guide and the other surface that is a sawtooth surface, and a beam splitter formed on an interface between the first and second light guides to transmit a part of the light and reflect the remainder thereof. The sawtooth surface is configured by alternately combining a first surface non-parallel to a propagating direction of the light propagating through the second light guide after passing through the interface and configured to transmit the light and a second surface substantially parallel to the propagating direction.

Abstract: An assay device allows reducing manufacturing variation, maintaining the measurement accuracy of the assay device at a high level, and enhancing the liquid control performance. The assay device of the present invention includes a microfluidic channel 2 allowing liquid to flow, an absorbing porous medium 3 disposed at a distance from one end 2a of the microfluidic channel 2, a separating space 4 disposed between the microfluidic channel 2 and the absorbing porous medium 3, and a housing space 5 housing the absorbing porous medium 3. The assay device further includes a lower member 20 which is an integrally molded article constituting a part of the assay device. The lower member 20 defines a lower portion 2b of the microfluidic channel 2, a lower portion 4a of the separating space 4, and a lower portion 5a of the housing space 5. The lower portions 4a, 5a of the separating space 4 and the housing space 5 are inclined downward toward one side from the other side in a flow direction.

Abstract: An inflatable includes an inflation chamber. The inflation chamber has an outer surface, a first end, and a second end substantially opposite the first end. The inflation chamber is configured to be inflated from a deflated state to an inflated state. The inflation chamber is loadable and bendable in the inflated state. The inflatable also includes a reinforcement. The reinforcement has reinforcement sections corresponding to high-stress regions of the outer surface when the inflation chamber is in the inflated state. The reinforcement is attached to the outer surface and is configured to improve at least one of a loading strength and a bending capability of the inflation chamber when the reinforcement sections are placed on the high-stress regions of the outer surface. The reinforcement is shaped according to a Turing pattern that is based on the high-stress regions of the outer surface.

Abstract: According to one embodiment, in an optical fiber bundle, in the cross section, arrangement of cores of a first multi-core fiber and arrangement of cores of a second multi-core fiber are the same as each other, arrangement of cores of a third multi-core fiber and arrangement of cores of a fourth multi-core fiber are the same as each other, and when the first multi-core fiber is rotated 180° in a circumferential direction of the first multi-core fiber, the arrangement of the cores of the first multi-core fiber is the same as the arrangement of the cores of the fourth multi-core fiber.

Abstract: An inflatable includes an inflation chamber. The inflation chamber has an outer surface, a first end, and a second end substantially opposite the first end. The inflation chamber is configured to be inflated from a deflated state to an inflated state. The inflation chamber is loadable and bendable in the inflated state. The inflatable also includes a reinforcement. The reinforcement has reinforcement sections corresponding to high-stress regions of the outer surface when the inflation chamber is in the inflated state. The reinforcement is attached to the outer surface and is configured to improve at least one of a loading strength and a bending capability of the inflation chamber when the reinforcement sections are placed on the high-stress regions of the outer surface. The reinforcement is shaped according to a Turing pattern that is based on the high-stress regions of the outer surface.

Abstract: A sensor includes a grayscale digital light processing (g-DLP) 3D printed monolithic substrate with at least one microfluid channel. The monolithic substrate is formed from a resin configured to form a solid polymer using g-DLP 3D printing with a Young's modulus ranging from 0.1 MPa to 100 MPa. The resin includes a donor moiety, an acceptor moiety different than the donor moiety, a rigid moiety, a photoinitiator, and a photoabsorber. The donor moiety is in the form of an acrylate monomer with a side group, the acceptor moiety is in the form of an acrylate monomer with a side group, and the rigid moiety is in the form of an acrylate monomer with a side group. Also, the sensor can include a sensor fluid disposed within the at least one microfluid channel.

Abstract: A reusable vehicle occupant protection system that includes a reusable housing member and one or more reusable impact attenuator members, disposed in a cavity of the reusable housing member. The reusable housing member has at least one moveable wall having one or more openings. The one or more reusable impact attenuator members are moveable from a storage operating state to a deployed operating state in response to receipt of a compressive force by the at least one moveable wall. In the deployed state, at least a portion of the one or more reusable impact attenuator members are extruded through the one or more openings to form an array of impact bubbles which cushions a vehicle occupant against an impact force to the vehicle.

Abstract: According to one embodiment, in an optical fiber bundle, in the cross section, arrangement of cores of a first multi-core fiber and arrangement of cores of a second multi-core fiber are the same as each other, arrangement of cores of a third multi-core fiber and arrangement of cores of a fourth multi-core fiber are the same as each other, and when the first multi-core fiber is rotated 180° in a circumferential direction of the first multi-core fiber, the arrangement of the cores of the first multi-core fiber is the same as the arrangement of the cores of the fourth multi-core fiber.