Abstract: A robot system includes a manipulating force detector configured to detect a manipulating force given to an operation end by an operator, a reaction-force detector configured to detect a reaction force given to a work end or a workpiece held by the work end, a system controller configured to generate an operating command of a master arm and generate an operating command of a slave arm based on the manipulating force and the reaction force, a master-side control part configured to control the master arm, and a slave-side control part configured to control the slave arm. The system controller has an exaggerated expresser configured to exaggeratedly present an operating feel to the operator who operates the operation end in a reaction-force sudden change state that is a state in which the reaction force changes rapidly with time.

Abstract: A medical movable body system according to the present disclosure includes a medical movable body, a robot, a manipulator, and a controller. The robot is in a first space. The manipulator is in a second space. The controller executes: (A) making the robot self-travel to approach a patient; and after the (A), (B) operating an arm and/or a hand .

Abstract: A robot with an impact buffering member on the surface of a robot arm for alleviating the impact when the arm contacts an object; and a contact detection unit for detecting a contact between the robot arm and object. The unit has a soft porous member on the front surface side of the impact buffering member and softer than the member; a housing member including the soft porous member and formed of a flexible material; a fluid discharge pipe for discharging a fluid inside the housing member when the object makes contact so the volume of the housing member decreases; and a volume change detection portion for detecting a change in volume of the housing member by utilizing the discharged fluid. It is possible to secure sufficient safety in a cooperative work between a person and a robot or the like, even when the person contacts the robot arm.

Abstract: A robot system includes a robot including an arm disposed in a first space , an operator that receives an operation on a test instrument in a second space , and a controller that operates the test instrument by controlling the robot in response to the received operation.

Abstract: A diagnosis/treatment support robot includes a surgical manipulator that is remotely manipulated by an operator. The surgical manipulator includes a robotic arm. The robotic arm includes an instrument mount at a tip thereof. A surgical instrument for surgery of a patient is attached to the instrument mount. An auxiliary instrument is attachable to the instrument mount. The auxiliary instrument is an instrument other than the surgical instrument. The auxiliary instrument is an instrument for at least either one of an auxiliary practice of a diagnosis of an infectious disease or an auxiliary practice of a treatment of the infectious disease for a target person.

Abstract: A master-slave system includes: a master unit including an operation end, an operation detector that detects operational information inputted by a force being applied to the operation end, and a force applier that gives a force to the operation end; a slave unit including an action part, and an operation part that moves the action part; and a control device. The control device outputs, according to a regulating condition and the operational information, a command for causing the operation part to operate the action part to carry out operation reflecting the regulating condition. The control device outputs, according to the regulating condition, a command for causing the force applier to give a force to the operation end against the input to the operation end that commands the given movement of the action part.

Abstract: A remote control device includes: a first arm; a second arm connected to a tip-end part of the first arm; two rotary bodies disposed at a tip of the second arm; a link structure including link members fixed to the two rotary bodies; and a user interface attached to the link structure. The two rotary bodies are independently and rotatably supported by respective coaxial drive shafts. The user interface is pivotable, with respect to the second arm, on each of mutually-perpendicular three axes passing through a center point of the link structure. The link structure is disposed at the lateral side of the rotary bodies so that the center point is located on an axis of the two drive shafts. The user interface is attached to the link structure on an axis of a rotation shaft passing through the center point.

Abstract: A robot system includes a robot installed in a work area and controlled by a second control device, a 3D camera operated by an operator, a sensor that is disposed in a manipulation area that is a space different from the work area, and wirelessly detects position information and posture information on the 3D camera, a display, and a first control device. The first control device acquires image information on a workpiece imaged by the 3D camera, acquires, from the sensor, the position information and the posture information when the workpiece is imaged by the 3D camera, displays the acquired image information on the display, forms a three-dimensional model of the workpiece based on the image information, and the acquired position information and posture information, displays the formed three-dimensional model on the display, and outputs first data that is data of the formed three-dimensional model to the second control device.

Abstract: A robot (100) includes a resistance circuit (60) configured or programmed to perform a control to reduce a braking force of a dynamic brake by changing a resistance value of a resistance component (63) with respect to a power supply path (61) when motors (30) are stopped at an abnormal stop.

Abstract: A robot system (100) of the present disclosure includes a robot (101) installed in a workarea (201), an interface (102), a display (105), and a control device (111). When operating the robot (101) to perform a kind of work defined beforehand to a workpiece (300) based on manipulational command information on the robot (101) inputted from the interface (102), the control device (111) displays on the display (105) a spatial relationship between the workpiece (300) and the robot (101) in a state where the workpiece and the robot are seen from a direction different from a direction in which an operator looks at the robot (101) from a manipulation area (202) that is a space different from the workarea (201), based on three-dimensional model information on the workpiece (300), three-dimensional model information on the robot (101), and the manipulational command information.

Abstract: A spherical joint of the present disclosure includes a ball member and a socket having an inner circumferential surface configured to spherically contact the ball member. The socket includes a cage part forming the inner circumferential surface and having an opening, and a bar-shaped connecting part provided to the cage part. A fastening member is disposed at the cage part so as to reduce a space of the opening in the extending direction of the connecting part and such that a gap is formed between the fastening member and the ball member. The opening is formed in a part of the inner circumferential surface other than a part where the largest load is applied.

Abstract: A master-slave system includes a master unit, a slave unit, and a control device. The control device includes first circuitry that determines a first relationship that is a relationship between a slave coordinate system and an object coordinate system, second circuitry that determines a second relationship that is a relationship between a master coordinate system and the object coordinate system, and third circuitry that outputs an operational command for causing the slave unit to operate according to operational information of the master unit, the first relationship, and the second relationship. When the object coordinate system is moved, the first circuitry newly determines the first relationship after the movement based on the moved object coordinate system and the slave coordinate system, and the second-circuitry determines the second relationship after the movement, as a relationship similar to the second relationship before the movement.

Abstract: A control device includes: first circuitry that generates a command to cause a robot to autonomously grind a grinding target portion; second circuitry that generates a command to cause the robot to grind a grinding target portion according to manipulation information from an operation device; third circuitry that controls operation of the robot according to the command; storage that stores image data of a grinding target portion and operation data of the robot corresponding to the command; and forth circuitry that performs machine learning by using image data of a grinding target portion and the operation data for the grinding target portion, receives the image data as input data, and outputs an operation correspondence command corresponding to the operation data as output data. The first circuitry generates the command, based on the operation correspondence command.

Abstract: A joint structure for a robot includes a first link and a second link, rotatably coupled to each other through a joint part. The joint part has a first rotary member so that an axial center thereof is oriented in a first direction and connected to the first link, and a pair of the second rotary members so that axial centers thereof are oriented in a second direction. A first linear-motion actuator is connected at a base-end part thereof to the second link and connected at a tip-end part thereof to the second rotary member. A second linear-motion actuator is connected at a base-end part thereof to the second link and connected at a tip-end part thereof to the second rotary member. The first rotary member is pivoted relatively to the second rotary members by pivoting the second rotary members.

Abstract: A robot system includes a slave unit including a slave-side force detector configured to detect a direction and a magnitude of a reaction force acting on a workpiece held by a work end of a slave arm, a master unit including a master-side force detector configured to detect a direction and a magnitude of an operating force applied by an operator to an operation end of a master arm, and a system controller configured to generate a slave operational command and a master operational command based on the operating force and the reaction force. The system controller includes a regulator configured to correct a moving direction of the work end so that the movement of the work end in a pressing direction of an object is regulated when the reaction force exceeds an acceptable value set beforehand.

Abstract: A secondary battery accommodating structure disposed at a humanoid robot includes an accommodating part for a secondary battery module, that is disposed inside cladding of a body of the humanoid robot and opens in a first direction that is a lateral direction, a fixing part that fixes the secondary battery module to the accommodating part, and a drawing space for the secondary battery module, located in the first direction with respect to the accommodating part, within the cladding of the body. The drawing space opens at least either one of upwardly or downwardly to allow in and out of the secondary battery module.

Abstract: A secondary battery unit includes a first secondary battery module disposed at at least either one of a front part or a back part of a body of a humanoid robot, a second secondary battery module disposed around the body in a direction intersecting with a front-and-rear direction of the body, and a base coupling the first secondary battery module to the second secondary battery module. The base is detachably attached to the body, together with the first secondary battery module and the second secondary battery module.

Abstract: A joint structure for a robot according to the present disclosure includes a first link and a second link rotatably coupled to each other via a joint part. The joint part has a first rotary member disposed so that an axial center thereof is oriented in a first direction and connected to the first link, a pair of second rotary members disposed so that an axial center thereof is oriented in a second direction perpendicular to the first direction, and so as to engage with the first rotary member, and a shaft member formed in a T-shape and having a first shank and a pair of second shanks. The joint structure further includes a pressing member connected to the second shank and configured to press the second rotary member inwardly.

Abstract: A power supply apparatus includes: a power supply portion connected to a power receiving portion of an electrical apparatus and configured to supply electric power to the power receiving portion; an arm including a tip end at which the power supply portion is provided, the arm further including at least one of a linear motion joint portion and a rotational joint portion; and a controller. The controller controls at least one of the linear motion joint portion and the rotational joint portion to move the arm such that the power supply portion is connected to the power receiving portion.

Abstract: Construction machinery with learning function includes an operating part having a working part, a manipulating part, a work-state detecting part, an operation-state detecting part, a reaction detecting part, a learning data memory configured to store a command outputted from the manipulating part in a time series as command data, and store, in a time series as estimation basic data, work-state data, operation-state data, and reaction data, a learning module configured to execute machine learning of command data stored in the learning data memory by using estimation basic data stored in the learning data memory, and, after the machine learning, receive an input of the estimation basic data during the operation of the operating part, and output an estimated command of the command, and a hydraulic drive system configured to drive the operating part based on one of the command and the estimated command, or both of the command and the estimated command.