A refuse vehicle includes a chassis, tractive elements, a lift apparatus, and a reach assembly. The tractive elements couple with the chassis and support the refuse vehicle. The lift apparatus includes a track and a grabber assembly. The track includes a straight portion and a curved portion. The grabber assembly releasably grasps a refuse container and ascends or descends the track to lift and empty refuse into a body of the refuse vehicle. The reach assembly includes an outer member, a first extendable member, and a second extendable member. The first extendable member is received within an inner volume of the outer member and translates relative to the outer member. The second extendable member is received within an inner volume of the first extendable member and translates relative to the first extendable member. The lift apparatus is fixedly coupled at an outer end of the second extendable member.

The present disclosure shows a device for the automated establishment of a plug-in connection of a plug arranged at a cable to a plug mating element, such as for cabling battery modules, and in the manufacture of vehicles having hybrid and/or electric drives, comprising: a gripper for gripping the plug, a handling unit having a plurality of axes for moving the gripper, with it being a multi-axis robot and/or a surface portal, and a control for controlling the gripper and the handling unit. Provision is made in this process that the gripper comprises a plug-in actuator for moving the plug into a plugged-in position with the plug mating element.

A vibration reduction system includes a base, a carrier element, and a plurality of actuator systems extending between the base and the carrier element, the plurality of actuator systems arranged to apply forces to the carrier element in multiple axes to reduce vibration of the carrier element, each actuator system of the plurality of actuator systems including a pneumatic actuator and an electric actuator.

A piezoelectric driving device includes a substrate, a plurality of piezoelectric elements disposed on the substrate, a first groove section provided between the plurality of piezoelectric elements, and a first wire provided in at least a part of a side surface and a bottom section of the first groove section.

Systems and methods for minimally invasive computer-assisted telesurgery are described. A computer-assisted teleoperated surgery system includes a teleoperated instrument actuation pod. The surgical instrument actuation pod includes a plurality of linear actuators arranged around a surgical instrument. The linear actuators engage with actuator engagement members on the instrument and so drive movable parts on the instrument. The actuation pod is mounted on a teleoperated manipulator. Instrument pod mass is close to the teleoperated manipulator to minimize the pod's inertia, momentum, and gravity effects on the manipulator.

A linear robot according to the present disclosure includes a main body unit including a main body base part seated on a ground surface, and main body sidewall parts protruding in an upward direction by a predetermined thickness from two opposite sides of the main body base part, the main body unit having an internal space defined by the main body base part and the main body sidewall parts; a transfer block unit partially accommodated in the internal space of the main body unit, configured to linearly move in one direction, and having an upper portion on which a transfer target object is seated, the transfer block unit being configured to transfer the transfer target object from a first position to a second position; and a pair of guide rail units disposed between the main body unit and the transfer block unit, coupled to the main body unit, and configured to guide the transfer block unit, in which the main body sidewall parts each have a guide rail unit accommodation groove recessed by a predetermined length in a direction perpendicular to the upward direction, and at least a part of a surface of the guide rail unit accommodation groove has an uneven machined surface.

An energy storing assistive mechanism includes a barrel having a first pivot end and an open end, a rod having a first end that passes through the open end and is received in the barrel, an elastic structure including two ends that abut against the first end of the rod and the first pivot end, a uni-directional gear rack having a second pivot end away from the barrel, and a locking mechanism fixed to the rod, the locking mechanism comprising a locking member and an actuator assembly that is to drive the locking member to move between a first position where the locking member is engaged with the gear rack, and a second position where the locking member is disengaged from the gear rack.

An apparatus includes a drive unit; and an arm assembly connected to the drive unit, where the arm assembly comprises a traversing platform having an end-effector configured to carry a payload located thereon; a linear actuation system configured to drive the traversing platform in a linear direction; and a magnetic support system comprising at least one guide attached to a frame of the arm assembly, a plurality of vertical actuators attached to the traversing platform, and a plurality of horizontal actuators attached to the traversing platform, the plurality of vertical actuators being configured, with the at least one guide, to move the traversing platform in a vertical direction relative to the linear direction, and the plurality of horizontal actuators being configured, with the at least one guide, to move the traversing platform in a horizontal direction relative to the linear direction.

A positioning device for positioning a limp flat workpiece has a provisioning area for providing the flat workpiece to be positioned and a camera for generating a camera image of the flat workpiece to be positioned. Furthermore, the positioning device comprises a first manipulator having a first gripper, a second gripper and a third gripper. The second gripper and the third gripper are configured to take over at least a portion of the limp flat workpiece from the first gripper. In addition, a method of positioning a limp flat workpiece is presented.

A component installation system includes an engagement clamp having a circular shape coupled to a robotic arm, being configured to engage an annular component. The component installation system further includes an actuator coupled to the engagement clamp and operable to cause the engagement clamp to engage and disengage the annular component, and a heating element coupled to the engagement clamp and arranged to heat the annular component engaged within the engagement clamp. The component installation system further includes a controller in communication with the robotic arm, the actuator and the heating element.