The robot hand holds a wire harness having a long harness main body and a connector connected to an end of the harness main body. The robot hand includes a fixed holding portion which holds the harness main body a vicinity of the end thereof, a pressing portion movable relative to the fixed holding portion in a longitudinal direction of the harness main body held by the fixed holding portion, and a driving unit which moves the pressing portion in a direction away from the fixed holding portion such that the pressing portion presses the connector outwardly in the longitudinal direction of the harness main body.

An object processing system is disclosed that includes a plurality of track sections, and a plurality of remotely actuatable carriers for controlled movement along at least portions of the plurality of track sections, wherein each of the remotely controllable carriers is adapted to support and transport an object processing bin.

An apparatus for supplying a welding tip of a welder and an apparatus for replacing the same include a fixed bracket secured to a support. The apparatus includes an actuator coupled to the fixed bracket and a first moving member moved by the actuator. A second moving member is coupled to the first moving member and hingedly coupled to the fixed bracket. A third moving member is hingedly coupled to the second moving member. A first welding tip removal member is coupled to the third moving member to separate a welding to tip coupled to a shank. A fourth moving member is disposed opposite to the first moving member. A fifth moving member is coupled to the fourth moving member and hingedly coupled to the fixed bracket. A sixth moving member is coupled to the fifth moving member. A second welding tip removal member is coupled to the sixth moving member.

The system can include: a container 110, a set of sensors 120, and a controller 130. The system can optionally include a robot 140. However, the system 100 can additionally or alternatively include any other suitable set of components. The system functions to monitor and/or maintain a fullness level of a container. The system can additionally or alternatively function to enable robotic picking out of the container (e.g., in a pick-and-place setting). The system can additionally function to maintain candidate objects within reach of the robot's end effector to increase robot uptime while minimizing the extent of the robot's required motion (e.g., in the z-axis).

Systems and methods are disclosed for controlling the rotation of turrets with servo motors within a machine line used in the shaping of articles. Error conditions can be detected using the servo motors for resolving issues with the machine line. Control of the turrets by the servo motors allows for each turret to be rotated relative to the other turrets independently for resolving the issues. Absolute encoders are used to return the servo motors and their respective turrets back to being aligned with a virtual axis for synchronous rotation of the turrets within the machine line, despite the turrets not being mechanically coupled together by a series of gears.

An inverter manufacturing cell includes a table including a base, a frame configured to receive a work piece, and at least one pivotable lift arm attached to the base and to the frame. The pivotable lift arm is configured to pivot relative to the base about at least one axis such that the frame and work piece rotate from a first, generally horizontal position to a second, generally vertical position. After rotating to the second, vertical position, the frame is configured to slide such that the frame and work piece further rotate to a third, generally horizontal position wherein the frame and work piece are inverted relative to the first, generally horizontal position.

The automated gripping tool enables a user to move a food product from a first position to a second position while maintaining the integrity and appearance of the food product. The automated gripping tool makes use of flexible gripping elements on the ends of banks of opposing pairs of gripping arms. The flexible gripping elements are positioned to cradle a stacked food product between them with sufficient force to allow the food product to be repositioned and without damaging the integrity of the food product.

Embodiments provide for systems and methods related to kiosks for personalizing a packaged article. The kiosks may also be used for storage, inventory management, retrieval, packaging, and/or personalization of packaged articles. The kiosks discussed herein differ from non-kiosk personalization systems, such as personalization systems installed on a factory or warehouse floor, in that the kiosks are self-contained personalization systems. In some embodiments, the kiosks are portable and can be moved between different sites or events. This portability allows the kiosks to personalize packaged articles for concerts, festivals, conventions, trade shows, and the like.

The present invention provides an article inverting and displacing apparatus and a machine for making sandwiches comprising the apparatus, wherein the apparatus comprises an engagement member (12) adapted to engage a lateral edge portion of a sandwich element; a drive unit (14) configured to drive the engagement member (12) to lift and turn the sandwich element engaged thereby about is opposite lateral edge to invert it; and a control unit configured to control the drive unit (14); wherein the control unit is configured to control the drive unit (14) to drive the engagement member (12) so that the opposite lateral edge of the sandwich element is caused to be raised to approximately at or above the level or height of the engaged lateral edge portion during the inverting step, and, optionally subsequently the sandwich element is caused to lie in a generally horizontal plane. The present invention also provides a process of automatically inverting and displacing articles.

A system includes an equipment front end module chamber, alignment pedestals housed within the equipment front end module chamber, and a load/unload robot at least partially housed within the equipment front end module chamber. The alignment pedestals include a first alignment pedestal having a first support surface and a second alignment pedestal having a second support surface, and the first support surface has a vertical offset and an overlap region having at least a partial overlap relative to the second support surface. The load/unload robot includes an arm, and vertically arranged blades attached to the arm. The vertically arranged blades include an upper blade configured to transfer a first substrate to the first alignment pedestal and a lower blade configured to transfer a second substrate to the second alignment pedestal.