Abstract: A transfer device comprises a support frame, a seat member, a support member, at least one caster, and a handle member. A care-receiver is configured to be seated on the seat member. The seat member is attached to the support frame and is foldable or extendable. The support member is attached to the support frame. The support member is configured to support an upper body of the care-receiver from front. The at least one caster is provided below the support frame. The handle member is attached to the support member. The handle member is movable in a front-back direction of the support frame and is configured to be grasped by a caregiver during a transfer.

Abstract: An air supply device comprises an enclosure, a pump and a flow path switching unit. The flow path switching unit includes a pedestal part, a rotating part having an enclosure interior space communication portion and a groove portion, and a drive unit. The enclosure includes an air supply port, an air discharge port, and at least one object connection port. The pedestal part includes at least one first hole that is communicated to the at least one object connection port, and a second hole that is communicated to the air discharge port. The enclosure interior space communication portion is communicated to the air supply port through an interior space of the enclosure. The groove portion is separated from the enclosure interior space communication portion.

Abstract: An air supply device comprises a pump and a flow path switching unit. The pump is configured to supply air. The flow path switching unit includes a pedestal part forming a flow path from the pump to at least one object, a rotating part rotatably provided with respect to the pedestal part to switch the flow path, and a sheet member disposed between the pedestal part and the rotating part. The sheet member has a first layer and a second layer that are stacked in a direction directing from the rotating part to the pedestal part. The first layer has a smaller elastic modulus than the second layer. The second layer has a smaller friction coefficient than the first layer.

Abstract: A tilting device includes: an upper movable plate arranged on a side on which an object T to be tilted is arranged; an intermediate movable plate connected to the upper movable plate in a rotatable manner via an upper rotation shaft; a first actuator; a first lower movable plate connected to the intermediate movable plate in a rotatable manner via a first lower rotation shaft; a second actuator; and a first connecting member that is connected to the upper movable plate in a rotatable manner via a first connecting rotation shaft at an end portion on a side of a first direction, and that is connected to the first lower movable plate in a rotatable manner via a second connecting rotation shaft at an end portion on a side of a second direction opposite to the first direction.

Abstract: A tilting device includes: an upper movable plate arranged on a side on which an object T to be tilted is arranged; an intermediate movable plate connected to the upper movable plate in a rotatable manner via an upper rotation shaft; a first actuator; a first lower movable plate connected to the intermediate movable plate in a rotatable manner via a first lower rotation shaft; a second actuator; and a first connecting member that is connected to the upper movable plate in a rotatable manner via a first connecting rotation shaft at an end portion on a side of a first direction, and that is connected to the first lower movable plate in a rotatable manner via a second connecting rotation shaft at an end portion on a side of a second direction opposite to the first direction.

Abstract: The disclosure provides a device holding member and a device holding member set. The device holding member is engaged with a bottom member formed with a hole or a frame supporting the bottom member and holds a device arranged on the bottom member. The device holding member includes a belt and a locking member. The belt includes an end part provided with an engaging member engageable with an edge part of the bottom member or the frame and holds the device. The locking member is provided between the engaging member and the device and locks a part of the belt to the hole.

Abstract: An input device capable of enhancing operability is provided, including: a display control unit that displays an operation screen on a display surface, and a first detection unit and a second detection unit 8 that detect respective positions of an object in a first sensing layer and a second sensing layer in air formed side by side in a direction substantially perpendicular to the display surface. When the object passes through the first sensing layer in a direction approaching the display surface, the display control unit determines a first partial operation screen including a position on the operation screen corresponding to a position of the object in the first sensing layer based on respective detection results of the first detection unit and the second detection unit, and enlarges and displays the determined first partial operation screen on the display surface.

Abstract: An input device includes an optical sensor which senses an object on a plane where the emitted light travels, an optical member which changes a path of the light emitted from the optical sensor, and a processing unit which performs input processing based on sensing results of the optical sensor; the optical sensor and the optical member form a first sensing surface consisting of a planar region in which the light emitted from the optical sensor travels and a second sensing surface that is farther from the optical sensor than the first sensing surface, and the processing unit performs the input processing based on a first sensing result of the optical sensor on the first sensing surface and a second sensing result of the optical sensor on the second sensing surface.

Abstract: An input device capable of precisely determining presence or absence of a specific non-contact operation on an operation screen is provided. An input device includes a display control unit that displays an operation screen on a display surface, a first detection unit that detects a passing state of an object in a first sensing layer in air formed to face the display surface, a second detection unit that detects a passing state of the object in a second sensing layer in air formed between the display surface and the first sensing layer, and a determination unit that determines presence or absence of the specific non-contact operation performed by the object based on respective detection results of the first detection unit and the second detection unit.

Abstract: A laser device includes a light source that emits light; a first reflector that reflects the light toward a predetermined range; a second reflector that reflects the light reflected from the predetermined range; a light receiver that receives the light reflected by the second reflector; a driver that swings the first and the second reflector in an angular range corresponding to the predetermined range; and a calculator that: stores first information about the light reflected by the first reflector toward the predetermined range and second information about the light received by the light receiver; and measures movement speed and movement direction of a target reflecting the light from the first reflector based on the first and the second information.

Abstract: An input device capable of enhancing operability is provided, including: a display control unit that displays an operation screen on a display surface, and a first detection unit and a second detection unit 8 that detect respective positions of an object in a first sensing layer and a second sensing layer in air formed side by side in a direction substantially perpendicular to the display surface. When the object passes through the first sensing layer in a direction approaching the display surface, the display control unit determines a first partial operation screen including a position on the operation screen corresponding to a position of the object in the first sensing layer based on respective detection results of the first detection unit and the second detection unit, and enlarges and displays the determined first partial operation screen on the display surface.

Abstract: An input device includes an optical sensor which senses an object on a plane where the emitted light travels, an optical member which changes a path of the light emitted from the optical sensor, and a processing unit which performs input processing based on sensing results of the optical sensor; the optical sensor and the optical member form a first sensing surface consisting of a planar region in which the light emitted from the optical sensor travels and a second sensing surface that is farther from the optical sensor than the first sensing surface, and the processing unit performs the input processing based on a first sensing result of the optical sensor on the first sensing surface and a second sensing result of the optical sensor on the second sensing surface.

Abstract: An input device capable of precisely determining presence or absence of a specific non-contact operation on an operation screen is provided. An input device includes a display control unit that displays an operation screen on a display surface, a first detection unit that detects a passing state of an object in a first sensing layer in air formed to face the display surface, a second detection unit that detects a passing state of the object in a second sensing layer in air formed between the display surface and the first sensing layer, and a determination unit that determines presence or absence of the specific non-contact operation performed by the object based on respective detection results of the first detection unit and the second detection unit.

Abstract: A position detecting apparatus includes a light-transmitting mirror that pivots around a pivot shaft and reflects measuring light from a light source; a light-receiving mirror that pivots around the pivot shaft and reflects returning light from an object; and a light-receiving element that receives the returning light from the light-receiving mirror. When the light-transmitting mirror and the light-receiving mirror are at rest, a first mirror angle between a mirror surface of the light-receiving mirror and a direction from the pivot shaft to the light-receiving element is larger than a second mirror angle between a mirror surface of the light-transmitting mirror and the direction.

Abstract: A scanner mirror includes a reflecting mirror and a driver. The reflecting mirror has first and second reflectors that are pivotally arranged about a pivot axis. The first and second reflectors have light receiving faces, respectively. The light receiving faces face in directions that are angularly offset with each other about the pivot axis. The driver drives the reflecting mirror to pivot the first and second reflectors within a specific angle range.

Abstract: An oscillation device includes an oscillator, an oscillation detector that detects an oscillation of the oscillator and outputs an oscillation detection signal, a phase shift controller that generates a phase shift signal to provide the drive signal as positive feedback to the oscillator, and an amplitude detector that detects an amplitude of the oscillation detection signal and outputs an oscillation amplitude signal. The oscillator is controlled based on the oscillation amplitude signal and the phase shift signal.

Abstract: A laser rangefinder includes a light source, a scanning mirror that scans laser light emitted from the light source by oscillating about an axis of oscillation J extending in a predetermined direction, a first lens that is disposed on an optical path of reflected light from a target object and condenses the reflected light onto the scanning mirror, a second lens that is disposed on an optical path of and condenses reflected light from the scanning mirror, and a photodetector that receives the reflected light condensed by the second lens. The first lens and the second lens are disposed in positions other than positions on an optical path of the laser light between a point of emission from the light source and a point of exit from the laser rangefinder.

Abstract: A laser scanner includes a light source, a scanning mirror, and a first photodetector. The scanning mirror includes: a first reflective surface reflects the laser light from the light source; and a second reflective surface that reflects, toward the photodetector, the laser light reflected from the target object. The first reflective surface and at least part of the second reflective surface are disposed at mutually different angles. When a first optical axis passing through the target object and the first reflective surface is parallel with a second optical axis passing through the target object and the second reflective surface, a third optical axis passing through the first reflective surface and the light source and a fourth optical axis passing through the second reflective surface and the photodetector are at a predetermined angle relative to one another.

Abstract: In a MEMS device (1), a first drive portion (40) is divided into a first drive section (41) and a second drive section (42). A second drive portion (50) is divided into a third drive section (51) and a fourth drive section (52). The first drive section, the second drive section, the third drive section, and the fourth drive section are controlled for driving independently of each other to incline an optical component (10).

Abstract: A laser scanner includes: a light source; a scanning mirror that scans laser light emitted from the light source, toward a target object by oscillating about axis C; a photodetector that generates a photodetection signal upon receiving the laser light reflected from the target object; a controller that controls emission of the laser light by the light source, and that performs sampling on the photodetection signal; and a detector that detects an amount of displacement of the scanning mirror, and calculates a resonant frequency of the scanning mirror based on the amount of displacement detected. The controller determines a time at which the laser light is emitted from the light source and a time at which sampling is performed on the photodetection signal, based on the resonant frequency calculated.