Abstract: A device for gripping a cylindrical object comprises two gripping springs and an actuator, wherein: each gripping spring comprises a first end, a second end opposite the first end, and an arcuate section disposed therebetween; the gripping springs are disposed on the device such that the first ends are pivotally coupled to the device, and the arcuate sections oppose each other so as to define an opening through which the cylindrical object is inserted; and the actuator is mechanically coupled to at least one of the second ends of the gripping springs such that movement of the actuator causes the arcuate sections of the gripping springs to grip the cylindrical object when inserted into the opening.

Abstract: A device for gripping a cylindrical object comprises two gripping springs and an actuator, wherein: each gripping spring comprises a first end, a second end opposite the first end, and an arcuate section disposed therebetween; the gripping springs are disposed on the device such that the first ends are pivotally coupled to the device, and the arcuate sections oppose each other so as to define an opening through which the cylindrical object is inserted; and the actuator is mechanically coupled to at least one of the second ends of the gripping springs such that movement of the actuator causes the arcuate sections of the gripping springs to grip the cylindrical object when inserted into the opening.

Abstract: A device for gripping a cylindrical object comprises two gripping springs and an actuator, wherein: each gripping spring comprises a first end, a second end opposite the first end, and an arcuate section disposed therebetween; the gripping springs are disposed on the device such that the first ends are pivotally coupled to the device, and the arcuate sections oppose each other so as to define an opening through which the cylindrical object is inserted; and the actuator is mechanically coupled to at least one of the second ends of the gripping springs such that movement of the actuator causes the arcuate sections of the gripping springs to grip the cylindrical object when inserted into the opening.

Abstract: A robotic beverage server that includes a robot, a beverage dispenser in fluid communication with a plurality of beverages contained within respective beverage storage receptacles and operable to dispense one or more of the beverages from the respective storage receptacles, and a controller to operate the robot to pick a container and move the container to the beverage dispenser and to operate the beverage dispenser to dispense one or more of the beverages from the storage receptacles into the container and transport the container to a user. A method of preparing a beverage or mixture of beverages that includes picking a container using a robot, moving the container to an automatic beverage dispenser, wherein the beverage dispenser is in fluid communication with and operable to dispense a plurality of beverages contained within a plurality of storage receptacles, dispensing a beverage into the container from the storage receptacles via the automatic beverage dispenser and delivering the container to a user.

Abstract: A workpiece positioner assembly comprises a headstock apparatus that is configured to rotate a workpiece A headstock interface assembly is configured to secure the workpiece to the headstock apparatus and comprises a bearing configured to enable pitch, yaw and roll movement of the headstock interface assembly relative to the headstock apparatus. The workpiece positioner assembly further comprises a tailstock apparatus configured to support the workpiece in cooperation with the headstock apparatus. The tailstock apparatus comprises a tailstock interface assembly that is configured to secure the workpiece to the tailstock apparatus. The tailstock interface assembly further comprises a tailstock bearing configured to enable axial movement of the workpiece relative to the tailstock apparatus.

Abstract: A robotic beverage server that includes a robot, a beverage dispenser in fluid communication with a plurality of beverages contained within respective beverage storage receptacles and operable to dispense one or more of the beverages from the respective storage receptacles, and a controller to operate the robot to pick a container and move the container to the beverage dispenser and to operate the beverage dispenser to dispense one or more of the beverages from the storage receptacles into the container and transport the container to a user. A method of preparing a beverage or mixture of beverages that includes picking a container using a robot, moving the container to an automatic beverage dispenser, wherein the beverage dispenser is in fluid communication with and operable to dispense a plurality of beverages contained within a plurality of storage receptacles, dispensing a beverage into the container from the storage receptacles via the automatic beverage dispenser and delivering the container to a user.

Abstract: A laser enclosure is provided including a laser chamber for a robotic laser and a load/un-load region. A partition is positioned between the laser chamber and the load/unload region that is effective in preventing the passage of laser light from the laser chamber to the load/unload region. The partition includes a stationary and a rotary partition that is rotated about a central rotary partition axis by a partition drive. At least one pair of opposing workpiece supports can be mounted on the rotary partition. A light-tight sealing region seals the interface between the rotary and stationary partitions from the passage of laser light.

Abstract: A light-tight laser enclosure system including an enclosure, a robotic laser, first and second pass through partitions, and first and second rotary positioners. The robotic laser is positioned within an interior volume of the enclosure and defines a processing envelope. The first pass through partition defines a first passage in selective communication with interior and exterior volumes of the enclosure, and is configured to maintain a light-tight configuration as the first passage is placed in selective communication with the interior and exterior volumes. The second pass through partition defines a second passage in selective communication with interior and exterior volumes of the enclosure, and is configured to maintain a light-tight configuration as the second passage is placed in selective communication with the interior and exterior volumes. The first and second rotary positioners are configured to secure a workpiece within the first and the second passages, respectively.

Abstract: A robotic order picking system employing a plurality of pedestal robots is provided. The robotic order picking system also employs a specialized transfer car including a pallet stacker. In accordance with one embodiment of the present invention, a robotic order picking system is provided comprising a plurality of pallet stations, a conveyor network, a pedestal robot, and a robotic order assembly station. The pedestal robot and the conveyor network are arranged to define product transfer paths extending from respective ones of the plurality of pallet stations to the robotic order assembly station.

Abstract: A workpiece enclosure system of the present invention includes a workpiece loading section, a laser workstation cell, and a workpiece unloading section. The workpiece loading section includes a materials handling robot arranged to move workpieces from an input conveyor to a light-tight pass-through enclosure in communication with the laser workstation cell. The laser workstation cell includes an additional materials handling robot arranged to move workpieces from the pass-through enclosure to one of two dual headstock/tailstock positioners for laser operations. Preferably, two sets of laser-cutting robots are arranged to perform laser-cutting operations on workpieces held by the headstock/tailstock positioners. The materials handling robot is further arranged to move workpieces from the headstock/tailstock positioners to an additional pass-through enclosure in communication with the workpiece unloading section.

Abstract: An object manipulation system is provided including a plurality of objects arranged in an object plane, an X-Y positioner, and an object manipulator. The X-Y positioner is arranged to move within an X-Y plane displaced from and parallel to the object plane. The object manipulator is coupled to the X-Y positioner so as to be movable with the X-Y positioner. The object manipulator comprises a rotary turret assembly and a plurality of gripper assemblies. The rotary turret assembly defines a plurality of gripper assembly stations and a gripper pick/place position. The rotary turret assembly is arranged to rotate the gripper assembly stations about a turret axis so as to position a selected one of the gripper assembly stations in the pick/place position. The gripper assemblies are arranged in respective ones of the gripper assembly stations.

Abstract: An integrated die cast system is provided comprising a die casting machine, a servo-controlled ladle, a servo-controlled sprayer, a pick and place robot, an integrated controller, and a programming pendant. The die casting machine includes a die casting machine controller. The servo-controlled ladle includes a molten material ladle and a servo-motor arranged to cause the ladle to transfer molten material to an injection chamber of the die casting machine. The servo-controlled sprayer includes a sprayer assembly and a servo-motor arranged to orient the sprayer assembly proximate a die cavity of the die casting machine. The pick and place robot is arranged to access a die cavity of the die casting machine. The integrated controller is in communication with the die-casting machine controller, the servo-controlled ladle, the servo-controlled sprayer, and the pick and place robot.

Abstract: A workpiece positioner is provided including a positioner chassis, a specially designed rotary framework, and first and second sets of workpiece supports. In accordance with one embodiment of the present invention, a workpiece positioner is provided comprising a positioner chassis, a rotary framework, and first and second sets of workpiece supports. The rotary framework defines opposite rotary framework ends and is coupled to the positioner chassis so as to be rotatable about a longitudinal framework axis. The first set of workpiece supports is positioned on opposite ones of the rotary framework ends so as to define a first workpiece axis extending between the first set of workpiece supports. The second set of workpiece supports is positioned on opposite ones of the rotary framework ends so as to define a second workpiece axis extending between the second set of workpiece supports. The first workpiece axis and the second workpiece axis lie in a common workpiece plane.

Abstract: A workpiece positioner is provided which is adapted to move a workpiece from a load/unload zone to a work zone spaced from the load/unload zone. The workpiece positioner comprises a first stationary frame, a second frame coupled to the first frame so as to be rotatable relative to the first frame about a first axis, a first drive device for effecting rotation of the second frame about the first axis, and a first workpiece holder adapted to releasably receive a workpiece. In accordance with a first embodiment of the present invention, the first holder is rotatably mounted to the second frame so that the workpiece holder and the workpiece are maintained in a substantially constant orientation relative to the first frame as the second frame is rotated about the first axis. In accordance with a second embodiment of the present invention, the workpiece positioner further includes a second drive device coupled to the second frame so as to move with the second frame.

Abstract: A robot programming system is provided comprising a simulated work cell configuration, a tool position and orientation sensor assembly, and a programing computer. The simulated work cell configuration includes a tangible artificial tool and a tangible artificial workpiece, wherein the position and orientation of the artificial tool relative to the workpiece is variable. The sensor assembly is operative to sense the position and the orientation of the artificial tool. The programming computer is in communication with the sensor assembly and is programmed to (i) display a variable virtual robot configuration based upon the sensed position and orientation of the artificial tool, (ii) receive discrete artificial tool positions and orientations from the sensor assembly, and (iii) create a robot job data file including the discrete artificial tool positions and orientations.

Abstract: A process and apparatus is provided for imparting linear motion to tooling. The tooling is attached to a manipulator device having two different length arms. The tooling may be moved linearly from a first point to a second point by adjusting the angles of the first and second arms for a number of intermediate points extending along a straight line between the first and second points and along which the tooling passes.

Abstract: A nozzle cleaning device is provided comprising a support structure capable of releasably receiving a hollow nozzle body having an inner surface and an open end or terminal edge portion, and a scraper apparatus coupled to the support structure and including at least one scraper finger adapted to move into and out of the nozzle body. The scraper finger has a distal end and a camming surface extending from the distal end to a scraping edge. The camming surface engages the nozzle body terminal edge portion as the scraper finger moves into the nozzle body, and the scraping edge engages the nozzle body inner surface as it moves within the nozzle body so as to remove unwanted material from the nozzle inner surface.