Abstract: Based upon a force in a vertical direction exerted between an object and a hand and an angle made by the hand relative to a horizontal face, a transporting force estimation unit estimates a transporting force applied in the vertical direction by a person, and based upon the estimated force, a force controlling operation is carried out so as to set a force in the vertical direction of the robot arm of a robot system to a predetermined force.

Abstract: There is provided a control device for a robot arm which includes an operation procedure information acquisition means for acquiring information on the procedure of a domestic operation, a progress management means for managing information on the progress of the operation, and a control parameter setting means for setting a control parameter for the robot arm based on the operation procedure information and the progress information, whereby the control device controls an operation of the robot arm based on the control parameter from the control parameter setting means.

Abstract: A control device for a robot arm is designed such that, based on information on a transportation state database in which information on a transportation state of a person operating the arm is recorded, an impedance setting unit sets a mechanical impedance set value of the arm, and an impedance control unit controls a mechanical impedance value of the arm to the mechanical impedance set value thus set.

Abstract: Fluid pressures of a plurality of compressible fluid pressure actuators that drive a joint through antagonistic driving are controlled by a main-fluid pressure control device, and at the time of applying quick brake upon collision, a proximate fluid pressure high-speed control device, disposed closely to the actuators, carries out pressure application or pressure reduction at a high speed on the actuators so as to be quickly accelerated or decelerated.

Abstract: A first elastic body actuator and a second elastic body actuator are used for driving a first configuration member and a second configuration member to swing them with respect to each other. One end portion of the first elastic body actuator is secured to the first configuration member and the other end portion of the first elastic body actuator is secured to the second configuration member, and one end portion of the second elastic body actuator is secured to the first configuration member and the other end portion of the second elastic body actuator is secured to the second configuration member, such that the position at which the other end portion of the second elastic body actuator is secured to the second configuration member and the position at which the one end portion of the first elastic body actuator is secured to the second configuration member are substantially symmetric about a rotational joint.

Abstract: A first elastic body actuator and a second elastic body actuator are used for driving a first configuration member and a second configuration member to swing them with respect to each other. One end portion of the first elastic body actuator is secured to the first configuration member and the other end portion of the first elastic body actuator is secured to the second configuration member, and one end portion of the second elastic body actuator is secured to the first configuration member and the other end portion of the second elastic body actuator is secured to the second configuration member, such that the position at which the other end portion of the second elastic body actuator is secured to the second configuration member and the position at which the one end portion of the first elastic body actuator is secured to the second configuration member are substantially symmetric about a rotational joint.

Abstract: In a robot arm controlling device, a mechanical impedance set value of the arm is set by an object property-concordant impedance setting device based on information of an object property database in which information associated with properties of an object being gripped by the arm is recorded, and a mechanical impedance value of the arm is controlled to the set mechanical impedance set value by an impedance controlling device.

Abstract: A control device (1) for a robot arm (8) which, if a human approach detection unit (3) detects approach of a person, performs control according to the impact between the robot arm (8) and the person, through an impact countermeasure motion control unit (4), by setting individual mechanical impedances for the respective joint portions of the robot arm (8) on the basis of the movement of the person detected by a human movement detection unit (2).

Abstract: A working robot arm and an object recognizing unit used for recognizing a moving body such as a person and an animal are prepared, and while an object recognized by the object recognizing unit is blocked by a shielding operation by the use of one portion of a robot mechanism unit, a job is carried out by the working robot arm so that it becomes possible to actively ensure a working space of the robot mechanism unit, and consequently to continue the job safely.

Abstract: A working robot arm and an object recognizing unit used for recognizing a moving body such as a person and an animal are prepared, and while an object recognized by the object recognizing unit is blocked by a shielding operation by the use of the robot arm or a trunk portion of a robot mechanism unit, a job is carried out by the working robot arm so that it becomes possible to actively ensure a working space of the robot mechanism unit, and consequently to continue the job safely.

Abstract: In a robot arm controlling device, a mechanical impedance set value of the arm is set by an object property-concordant impedance setting device based on information of an object property database in which information associated with properties of an object being gripped by the arm is recorded, and a mechanical impedance value of the arm is controlled to the set mechanical impedance set value by an impedance controlling device.

Abstract: A robot arm is provided with an end effecter for grasping an object and a force sensor for detecting a force acted upon the end effecter. In the state in which end effecter grasps an object, when there is a change in the force acting on the end effecter detected by the force sensor, outputted is a signal for releasing the force of the end effecter grasping the object. The object grasped by the end effecter can be taken out as if the object were handed from person over to person.

Abstract: A robot arm is provided with an end effecter for grasping an object and a force sensor for detecting a force acted upon the end effecter. In the state in which end effecter grasps an object, when there is a change in the force acting on the end effecter detected by the force sensor, outputted is a signal for releasing the force of the end effecter grasping the object. The object grasped by the end effecter can be taken out as if the object were handed from person over to person.

Abstract: Realized is a robot controller capable of handling a large amount of data of images and so on necessary for advanced intelligence of control while securing a real-time performance with a simple structure. For this purpose, there are provided a motion control device for performing a calculation process for achieving motion control of an object to be controlled, a recognition and planning device for performing task and motion planning of the object to be controlled and recognition of outside world, an input/output interface for outputting a command to the object to be controlled and receiving as input, a state of the object to be controlled, and a route selecting device for controlling communications by switching connections among the motion control device the recognition and planning device, and the input/output interface.

Abstract: A working robot arm and an object recognizing unit used for recognizing a moving body such as a person and an animal are prepared, and while an object recognized by the object recognizing unit is blocked by a shielding operation by the use of one portion of a robot mechanism unit, a job is carried out by the working robot arm so that it becomes possible to actively ensure a working space of the robot mechanism unit, and consequently to continue the job safely.

Abstract: A joint structure includes a rotating guide pulley, a fixed guide, and a rotating guide pulley. The rotating guide pulley is coaxial with a rotating shaft of a revolute joint, and is arranged so as to be rotatable about the rotating shaft. The fixed guide is arranged in a first structure, and has an arc portion. The arc portion has the same radius as the rotating guide pulley and is coaxial with the rotating guide pulley. The rotating guide pulley is arranged in a second structure so as to be relatively movable. A wire is put round the rotating guide pulley, the movable rotating guide pulley, and the fixed guide in the order of them.

Abstract: A joint structure includes a rotating guide pulley, a fixed guide, and a rotating guide pulley. The rotating guide pulley is coaxial with a rotating shaft of a revolute joint, and is arranged so as to be rotatable about the rotating shaft. The fixed guide is arranged in a first structure, and has an arc portion. The arc portion has the same radius as the rotating guide pulley and is coaxial with the rotating guide pulley. The rotating guide pulley is arranged in a second structure so as to be relatively movable. A wire is put round the rotating guide pulley, the movable rotating guide pulley, and the fixed guide in the order of them.

Abstract: An internal pressure of a hydropneumatic drive actuator is measured by a pressure measurement device, a displacement amount of a movable mechanism is measured, a desired value and a measurement value of the displacement are inputted so that a position error is compensated by a position error compensation device, a desired value of a pressure difference of the actuator to which antagonistic driving is performed by the desired value is calculated by a desired pressure difference calculation device, outputs from the position error compensation device, the desired pressure difference calculation device, and the pressure measurement device are inputted, and a pressure difference error is compensated by pressure difference error compensation device.

Abstract: A first elastic body actuator and a second elastic body actuator are used for driving a first configuration member and a second configuration member to swing them with respect to each other, wherein one end portion of the first elastic body actuator is secured to the first configuration member and the other end portion of the first elastic body actuator is secured to the second configuration member, and one end portion of the second elastic body actuator is secured to the first configuration member and the other end portion of the second elastic body actuator is secured to the second configuration member, such that the position at which the other end portion of the second elastic body actuator is secured to the second configuration member and the position at which the one end portion of the first elastic body actuator is secured to the second configuration member are substantially symmetric about a rotational joint.

Abstract: An internal pressure of a hydropneumatic drive actuator is measured by a pressure measurement device, a displacement amount of a movable mechanism is measured, a desired value and a measurement value of the displacement are inputted so that a position error is compensated by a position error compensation device, a desired value of a pressure difference of the actuator to which antagonistic driving is performed by the desired value is calculated by a desired pressure difference calculation device, outputs from the position error compensation device, the desired pressure difference calculation device, and the pressure measurement device are inputted, and a pressure difference error is compensated by pressure difference error compensation device.