Abstract: A terminal apparatus includes a camera, a display that displays a display screen including a mobile robot that autonomously travels, and a control circuit. The control circuit acquires a first planned route of the mobile robot, displays, on the display, a screen having the first planned route superimposed on a camera image taken by the camera, detects a contact point on the display on which the screen is displayed, generates a second planned route of the mobile robot that travels through the contact point, and transmits the second planned route to the mobile robot.

Abstract: An autonomous travel-type cleaner includes a housing, a drive unit for moving the housing, an incoming call detector that detects whether or not there is an incoming call to a communication terminal, a person detector that detects whether or not a person is present within a first range, an incoming call notification unit (for example, a light source and a speaker) for notifying of presence of an incoming call, and a controller. The controller controls a notification operation of the incoming call notification unit based on a detection result of the person detector and a detection result of the incoming call detector.

Abstract: A terminal apparatus includes a camera, a display that displays a display screen including a mobile robot that autonomously travels, and a control circuit. The control circuit acquires a first planned route of the mobile robot, displays, on the display, a screen having the first planned route superimposed on a camera image taken by the camera, detects a contact point on the display on which the screen is displayed, generates a second planned route of the mobile robot that travels through the contact point, and transmits the second planned route to the mobile robot.

Abstract: A cleaner system includes an autonomous travel type cleaner and an information processing apparatus. The information processing apparatus includes a first information generator that generates first information about dirt based on a plurality of pieces of image data indicating a floor surface. The cleaner includes an imaging device that images the floor surface. The cleaner system includes a second information generator that generates second information based on image data acquired from the imaging device, a determination unit that determines whether the second information indicates dirt, based on the first information and generates a determination result, and a cleaning controller that changes a cleaning operation on the floor surface on which the second information is acquired, based on the determination result of the determination unit.

Abstract: Autonomous travel-type cleaner includes a main body, cleaning unit that performs operations of wiping and sweeping of a cleaning target area and sucking of dust, and driver that enables the main body to travel. Autonomous travel-type cleaner further includes person appearance region information acquisition unit that acquires information indicating a person appearance region in which an appearance rate of a person is higher than a threshold in the cleaning target area and controller that controls cleaning unit and driver to cause autonomous travel-type cleaner to clean the person appearance region in the cleaning target area based on current position information acquisition unit that acquires information on a current position of the main body.

Abstract: An autonomous travel-type cleaner includes a housing, a drive unit for moving the housing, an incoming call detector that detects whether or not there is an incoming call to a communication terminal, a person detector that detects whether or not a person is present within a first range, an incoming call notification unit (for example, a light source and a speaker) for notifying of presence of an incoming call, and a controller. The controller controls a notification operation of the incoming call notification unit based on a detection result of the person detector and a detection result of the incoming call detector.

Abstract: An autonomous cleaner includes: a main body including a housing, a drive wheel (wheel) attached to the housing, and a drive unit that drives the drive wheel; a map storage unit that stores map information for the main body to travel; a determination unit that determines whether the main body approaches or comes into contact with a person infected with at least one of a virus and a bacterium; and a map information corrector that reflects, in the map information stored in the map storage unit, contact information on approach or contact of the main body with the infected person determined by the determination unit.

Abstract: An autonomous cleaner includes: a main body including a housing, a drive wheel (wheel) attached to the housing, and a drive unit that drives the drive wheel; a map storage unit that stores map information for the main body to travel; a determination unit that determines a harmful concentrated region that is likely to generate a harmful substance including at least one of a virus and a bacterium; and a map information corrector that reflects and corrects, in the map information stored in the map storage unit, the harmful concentrated region determined by the determination unit.

Abstract: A vacuum cleaner system includes a position sensor that acquires a positional relationship between the vacuum cleaner and an object around the vacuum cleaner, a map acquisition unit that acquires a floor map indicating the predetermined floor, a self-position estimation unit that estimates a self-position on the floor map based on the position sensor, the self-position being a position of the vacuum cleaner, a boundary information generation unit that acquires, based on the self-position, boundary information indicating a boundary of a cleaning area which is an area where the vacuum cleaner performs cleaning on the floor, a boundary instruction unit that instructs the boundary information generation unit on the boundary, a cleaning area creation unit that creates a cleaning area based on the boundary information, and a running route creation unit that creates a running route for cleaning based on the created cleaning area.

Abstract: A vacuum cleaner system includes a vacuum cleaner that performs cleaning while autonomously running and a display unit that displays information acquired from the vacuum cleaner. The vacuum cleaner system includes: an object information acquisition unit that acquires object information, which is information on an object present around the vacuum cleaner, based on a first sensor, a danger determination unit that determines danger of the object based on the acquired object information, a map acquisition unit that acquires a map of an area where the vacuum cleaner runs; and a dangerous position display unit that causes the display unit to display the danger of the object determined by the danger determination unit and the acquired position of the object on the map in association with each other.

Abstract: Provided is a mobile body system capable of moving in a more appropriate travel path. In the mobile body system, upon movement of the first to third mobile bodies from the first area into the second area, (a) the third mobile body moves into a boundary area and temporarily stops using the distance to the first mobile body and the distance to the second mobile body, (b) after the third mobile body moves into the boundary area, the first mobile body moves into the boundary area and temporarily stops using the distance to the second mobile body and the distance to the third mobile body, and (c) after the third mobile body moves into the boundary area, the second mobile body moves into the boundary area and temporarily stops using the distance to the first mobile body and the distance to the third mobile body.

Abstract: A vacuum cleaner autonomously runs in a predetermined space and performs cleaning. This vacuum cleaner includes a position sensor that acquires a positional relationship between the vacuum cleaner and an object present in a two-dimensional measurement target space along a running surface of the vacuum cleaner, an estimated map acquisition unit that acquires a self-position estimation map corresponding to the measurement target space, a cleaning route acquisition unit that acquires a cleaning route created along the running surface based on a route planning map having a shape different from a shape of the self-position estimation map, a self-position estimation unit that estimates the self-position using the positional relationship based on the position sensor and the self-position estimation map, and a running controller that causes the vacuum cleaner to run along the cleaning route based on the self-position estimated by the self-position estimation unit.

Abstract: A self-driving cleaner includes a drive unit, a control circuit, a camera, a first sensor for detecting an object, and a second sensor for detecting a stuck state, and a third sensor for detecting a person. The control circuit is configured to (a) identify information about a target object which caused the stuck state, (b) receive information indicating whether the target object is to be cleaned, and (c) control the drive unit and a suction unit, when receiving information indicating that the target object is to be cleaned, to perform a first mode where a space excluding the target object is cleaned first and, thereafter, the target object is climbed if the person is not detected and perform a second mode where the target object is climbed first and, thereafter, the space excluding the target object is cleaned if the person is detected.

Abstract: A self-driving cleaner includes a drive unit that drives movement of a cleaner body, a control circuit disposed in the cleaner body, a camera that captures an image in front thereof, an obstacle detection sensor that detects an object, and a rotational frequency sensor that detects a stuck state. The control circuit (a) identifies information about a target object that caused the stuck state, (b) receives information indicating whether the target object is to be cleaned, and (c) controls the drive unit and a suction unit, when receiving information indicating the target object to be cleaned, to perform a first mode where the space excluding the target object is cleaned first and, thereafter, the target object is climbed if receiving cleaning reservation and perform a second mode where the target object is climbed first and, thereafter, the space excluding the target object is cleaned if receiving a cleaning start instruction.

Abstract: A vacuum cleaner system includes a vacuum cleaner and a first marker allowed to be placed in a cleaning area, and the vacuum cleaner includes a map acquisition unit that acquires a map, a positional relationship acquisition unit that acquires a first positional relationship indicating a positional relationship between the vacuum cleaner and the first marker in the cleaning area, and a marker information acquisition unit that acquires first marker information carried by the first marker. The vacuum cleaner system further includes a cleaning plan construction unit that constructs a cleaning plan in the map based on the first marker information, the first positional relationship, and a self-position of the vacuum cleaner in the map. This provides a vacuum cleaner system capable of automatically constructing a cleaning plan.

Abstract: A cleaning device includes: a range finding sensor; an acquisition unit which acquires a map of an environment including object position information, and a first path where the cleaning device is to move in the environment; an identification unit which identifies a first path partial path; a converter which converts the partial path into a differently-shaped path to generate a second path; and a motor controller which causes the cleaning device to move along the second path. The identification unit sets a region, on the map, where the range finding sensor can perform range finding from start and end points of a portion of the first path, and identifies the portion as the partial path when only one or more straight lines which traverse the region and are parallel to a line segment toward the end point from the start point are represented as the object in the region set.

Abstract: In a standing-up motion assist system for assisting a care receiving person, a care belt includes a first holder that holds a neck part or a back part of the care receiving person, a second holder that holds a lumbar part of the care receiving person, a third holder that connects the first holder and the second holder and holds armpits of the care receiving person, a second connector located at a chest of the care receiving person, and a first connector that connects the first holder and the second holder. A pulling mechanism is connected to the second connector and pulls the second connector. A controller controls the pulling mechanism so as to pull the second connector in a forward and upward direction with reference to the care receiving person, and, thereafter, pull the second connector in a backward and upward direction with reference to the care receiving person.

Abstract: A sitting motion assist system for assisting a sitting motion of a patient changing their posture from a standing posture to a sitting posture includes a care belt, a knee-bending adviser, and a pulling mechanism. The care belt can be put on the patient and includes a hold mechanism including a first holder capable of holding the neck or shoulder of the patient and a second holder capable of holding their lower back, and a coupler capable of being positioned on their chest and coupled to the hold mechanism. The knee-bending adviser advises the patient to perform a knee-bending motion. The pulling mechanism is coupled to the hold mechanism via the coupler and pulls the care belt downward and slightly forward relative to the patient after the advice by the knee-bending adviser, and thereafter pushes the care belt downward and slightly backward to assist the sitting motion.

Abstract: Provided is a mobile body system capable of moving in a more appropriate travel path. In the mobile body system, upon movement of the first to third mobile bodies from the first area into the second area, (a) the third mobile body moves into a boundary area and temporarily stops using the distance to the first mobile body and the distance to the second mobile body, (b) after the third mobile body moves into the boundary area, the first mobile body moves into the boundary area and temporarily stops using the distance to the second mobile body and the distance to the third mobile body, and (c) after the third mobile body moves into the boundary area, the second mobile body moves into the boundary area and temporarily stops using the distance to the first mobile body and the distance to the third mobile body.

Abstract: A standing motion assist system includes a care belt including a holding mechanism including a holder that holds a back and both armpits of a care-receiver, and a connector that is connected to the holding mechanism; a rotational force applying mechanism that is connected to the holding mechanism and that rotates a front lower part of the holder upward and a rear upper part of the holder downward about a rotation axis extending through both armpits; a traction mechanism that is connected to the connector and pulls the connector; and a controller that controls the rotational force applying mechanism and the traction mechanism so that, after the traction mechanism has started the pulling motion, the rotational force applying mechanism rotates the holder at the same time as the traction mechanism pulls the connector forward and upward, and subsequently the traction mechanism pulls the connector upward.