A compliance mechanism for a pick and place robotic system comprising: a motion device, an end effector coupled to the motion device, wherein the end effector comprises a sheath structure, a rod, wherein the compliance mechanism is configured to: when the distal end of the rod is in not contact with an object, causing the distal end of the rod to move responsive to movement of the motion device, and when the distal end of the rod is in contact with an object and the motion device moves toward the object, causing the distal end of the rod to remain stationary by causing the sheath structure to move along a longitudinal direction of the rod.

A tool stocker for holding a tool is equipped with a stocker-inclining member that inclines the tool stocker and also equipped with a mechanism that adjusts an attaching/detaching position at which an interchangeable tool is attached to and detached from a robot arm. The attaching/detaching position can be adjusted by using the tool stocker so as to fit moving paths of the robot arm appropriately.

A transport mechanism for wafers of different sizes and types includes a carrier device and a manipulator device. The carrier device has a mounting rack, multiple supporting units, and multiple carrier units. The multiple supporting units are mounted on the mounting rack, and each supporting unit has two supporting bases. Each one of the multiple carrier units has two carrier plates. Each one of the two carrier plates has a connecting rod and two positioning rods. The two positioning rods are respectively located on two sides of the connecting rod. The manipulator device has a driving unit and a manipulator unit. The manipulator unit is mounted on the driving unit and has two arms. Each one of the two arms has a connecting socket and two positioning sockets. The two positioning sockets are respectively located beside the connecting socket. The locking element is movably mounted to the arm.

In various embodiments, a tool plate configured to receive a robotic end effector is removably matable with a robot appendage via a quick-release mechanism.

A bending tool with a shoulder, a tool holder groove and a clamping groove on the tool body is described. The bending tool has an oval bore going through the tool body below the shoulder. The tool holder groove side of the tool body has an oval seat extending into the oval through-bore, at the end of which, the end going into the tool body, is a flange extending vertically beyond the oval through-bore.

Devices, systems, and methods for automatically exchanging a first end-effector on a robot arm with a second end-effector housed in a docking station. The first end-effector has a clamp that either engages or disengages the robot arm based upon an application of force of the robot arm onto the end-effector. The clamp has a spring loaded clip that disengages the first end-effector to allow the robot arm to move away from the released first end-effector. The robot arm is configured to automatically move to a port of a docking station housing the desired second end-effector using magnetic coils on the robot arm and the docking station to guide the robot arm.

A machine tool equipped with a robot includes a stocker which has one or more effector holder units for holding an end effector to be mounted on the robot, in which the stocker can be stored within a casing of the machine tool. At least a part of the stocker is configured to be bilaterally advanceable into a machining chamber of the machine tool and an external region located outside the machine tool.

An automated transforming tooling system apparatus and method for shuttling a workpiece to and from an industrial operation. The system includes a workstation for complementarily engaging and securing the workpiece, and at least one holder removably secures at least on end effector tool to the workstation. At least one transfer bar is movably positioned with respect to the workstation. At least one automated transforming tooling assembly is connected to the transfer bar and has a plurality of links adjustably connected by motorized joints to automatically position the automated transforming tooling assembly. An automated tool changer is connected to the automated transforming tooling assembly and releasably engages the end effector tool between a disengaged position, wherein the end effector tool is disengaged from the automated tool changer, and an engaged position, wherein the end effector tool is engaged by the automated tool changer.

The invention is based on a precision apparatus for placement into storage and/or removal from storage (54) for an at least semiautomated placement into storage and/or removal from storage of tools (10), in particular tool assemblies (12), and/or of tool chucks (14) into and/or out of a storage lift (16), with at least one holding unit (24) for tools (10), in particular tool assemblies (14), and/or tool chucks (14), which is loadable by a handling robot (18) and forms a plurality of storage bins (20, 22).

It is proposed that the holding unit (24) comprises at least one form-fitting centering element (26), which is configured to interact with a centering bolt (28) and/or a centering recess for a submillimeter-precise horizontal orientation of the holding unit (24).

A machine for filling and packaging containers including but not limited to bottles, cartridges, and syringes includes a wall that delimits an operating chamber in which at least one handling arm is arranged and which is facing at least one station placed externally to the operating chamber for the treatment of one or more of the containers. An intermediate element includes at least one coupling member configured to be alternatively operatively associable to the station and to the handling arm, with the intermediate element further including a coupling assembly integral to the intermediate element itself and different than coupling member. The coupling assembly is configured to removably hold one or more of the containers to be treated.