Abstract: A clamping device configured to handle large and fragile objects can include large jaws extended outside a smaller jaw support. The extended areas of the second jaw can be up to 4× of the jaw support, and can contain reinforced ridges configured so that a force applied from the second body portion to the second jaw spreads to the extended areas of the second jaw outside the second body portion, for example, to at least 80%. The clamping device can include an automatic locking mechanism for open and close the jaws from an operator far away from the clamping device.

Abstract: Suction gripper 14 includes fixing member 1 including hole part 7, grasping part 2 including a plurality of flexible and airtight bag parts 2a and 2b whose interiors are coupled together in the central axis direction of hole part 7 with fixing member 1 therebetween, the plurality of bag parts 2a and 2b being filled with powder 8 or particles and fluid, and hardening unit 3 configured to harden the plurality of bag parts 2a and 2b. Grasping part 2 has a configuration in which when a workpiece is pushed against any of the plurality of bag parts 2a and 2b, the contact portion with the workpiece conform to the shape of the workpiece while the other bag part expands in accordance with the deformation.

Abstract: A buffer block apparatus for securing a node may be described. The buffer block apparatus may include a first surface having disposed thereon at least one first zero-point feature configured for a first zero-point interface with a robotic assembly apparatus; and a second surface, different from the first surface, configured to connect with a first surface of a node and form a first rigid connection between the buffer block apparatus and the node, wherein the buffer block apparatus provides at least one reference coordinate system with respect to the node.

Abstract: According to one embodiment, a gripping tool includes a gripper. The gripper is flexible and includes a first portion contacting a workpiece, a second portion opposing the first portion, and a granular material provided between the first portion and the second portion. The first portion includes a concave portion and a convex portion. The concave portion is recessed in a first direction. The first direction is from the first portion toward the second portion. The convex portion is provided around the concave portion and protrudes in a second direction. The second direction is the reverse of the first direction. The concave portion has a groove having a ring configuration recessed outward from a center of the gripper.

Abstract: According to one embodiment, a gripping tool includes a gripper, a sensor, a pump unit, and a controller. The gripper is flexible and has a granular material provided in an interior of the gripper. The sensor is connected to the interior. The sensor detects a pressure or a flow rate of a gas. The pump unit is connected to the interior. The controller performs at least a first operation of causing the gripper to contact a workpiece and causing the gripper to operate, and a second operation of separating the gripper from the workpiece and causing the gripper to operate. In at least a portion of the second operation, the controller sets a pressure of the interior to be different from a pressure external to the gripper.

Abstract: A gripper assembly is disclosed. The gripper assembly includes a stage, a mounting platform, and a plurality of the flexible gripper elements. The flexible gripper element is configured to grip an object. The flexible gripper elements are supported by a first end piece, where the first end piece is attached to the mounting platform. The mounting platform is connected to the stage, where the stage is moveable. The flexible gripper element includes a hollow section that is selectively pressurizable. The hollow section includes one or more zones, where each zone includes chambers which are pressurizable by a fluid input. The selective pressurization of the hollow section allows the flexible gripper element to grip the object.

Abstract: An end effector assembly and method for robot-enabled manipulation of round objects automates the gripping, rotationally manipulating, loading, and unloading of round objects, like an ophthalmic substrate, to a coating machine subassembly. A lens wheel carries spring-loaded retention pegs that grip and release the round object. Springs selectively generate tension on the retention pegs, causing retention pegs to articulate radially inward or outward, so as to press the round object to the lens wheel, or release the object. A retention peg actuator selectively engages the springs to generate tension and release tension from springs. A processor regulates articulation of the retention peg actuator. A sensor detects the position of the object, whereby at least one position of the round object triggers the sensor to transmit a signal commanding the retention peg actuator to articulate. A human-machine interface transmits command signals and displays positions of the lens wheel and retention pegs.

Abstract: A vacuum gripper comprises a rigid base element and a loop-shaped vacuum seal element. The base element has first and second opposite sides. The seal element is attached at least indirectly to the second side and protruding therefrom in a direction away from the first side. The seal element comprises a contact surface that at least partially contacts with an object surface and an encircling surface oriented transversely to the contact surface so as to define a chamber. The seal element is elastically deformable at the contact surface to enable conforming to the object surface when pressed thereagainst. The vacuum gripper comprises an air extraction means mounted to the first side to be in fluid communication with the chamber through the base element, and configured to continuously extract air from the chamber to cause the contact surface to be urged towards and grip the object surface when pressed thereagainst.

Abstract: An end effector device includes a housing having an opening, a first gripper, and a second gripper. The first gripper includes a first finger and a second finger facing each other and configured to open and close. The second gripper includes a third finger and a fourth finger facing each other and configured to open and close in a direction intersecting the first gripper. The first finger, the second finger, the third finger, and the fourth finger each protrude from the opening.

Abstract: A hook assembly including a spring-biased safety latch that provides for installation of the latch onto the hook without spring tension. A fastener is configured to slide along an elongate slot when the latch is moved in translatory motion relative to the fastener. The fastener is configured to be inserted into the assembly in a first position while the tension on a biasing member is released. The first position is configured to allow the latch to rotate inward past the tip of the hook. The fastener is configured to move into a second position where it engages with a nut 53 that when installed is positioned in the portion and blocked by at least one shoulder such that the fastener is no longer able to slide in the slot preventing translator motion of the latch relative to the fastener.

Abstract: According to one embodiment, a gripping tool includes a gripper. The gripper is flexible. A plurality of granular materials is provided in an interior of the gripper. The gripping tool grips a workpiece by depressurizing the interior of the gripper in a state in which the gripper is caused to contact the workpiece. A diameter of at least a portion of the granular materials is less than 1774 ?m.

Abstract: The invention relates to a gripping finger (1) for an adaptive gripping device (10), comprising a first strip element (2) and a second strip element (3), which are flexible, and a plurality of spacing elements (7, 13, 16), which are arranged between the first strip element (2) and the second strip element (3). A first end (8) of each of the spacing elements (7, 13, 16) is movably connected to the first strip element (2) and an opposite second end (9) of each of the spacing elements (7, 13, 16) is movably connected to the second strip element (3). At least one of the spacing elements (7, 13, 16) is designed as a curved spacing element (13), the curved spacing element (13) having a predefined curvature.

Abstract: A method of aligning a substrate contact material to a substrate material includes determining a hardness of a substrate material. The method further includes matching a hardness of a substrate contact material to the hardness of the substrate material. The method further includes adding the substrate contact material to a plurality of contact structures of a substrate handling device, wherein the substrate handling device comprises an edge and a planar surface, a first contact structure of the plurality of contact structures extends from the edge, and a second contact structure of the plurality of contact structures extends from the planar surface.

Abstract: The invention relates to a handling device (1), having a drive carriage (2) that is movable relative to a carrier (3), wherein a scissor lift (7) having a plurality of scissor-lift members (8) is arranged with its first end on the drive carriage (2), wherein a carrier plate (11) that is movable relative to the drive carriage (2) by means of the scissor lift (7) is arranged at the second end of the scissor lift (7), wherein: a gripping tool is arranged on the carrier plate (11), the scissor-lift members (8) are hollow throughout and are sealingly interconnected in order to actuate the gripping tool by means of a gaseous medium.

Abstract: An animal feces collection assembly for holding a plastic bag open for receiving animal feces includes a holder that has a stem portion and a ring portion. The stem portion can be gripped by a user and the ring portion can have a plastic bag positioned therearound. The ring portion has a groove integrated therein. A gasket is positionable around the ring portion such that the gasket is positioned in the groove. In this way the gasket compresses the plastic bag into the groove to retain the plastic bag on the ring portion.

Abstract: A method for gripping, moving and releasing a piece of cloth with a gripper that is initially placed with opposed, movable, coherent, flexible surface parts in contact with the piece of cloth, and the surface parts are moved with respect to each other and with respect to the gripper in a gripping action, in order to pinch and hold on to the piece of cloth. The gripper with the piece of cloth pinched between the surface parts is moved to a different location, wherein the surface parts move in a reverse direction in order to release the piece of cloth. While in contact with the piece of cloth, the opposed surface parts are moved along a path which brings the surface parts both closer to each other and moves them in a direction away from the piece of cloth.

Abstract: A gripping device (2) configured to be detachably attached to a robot (20). The gripping device (2) comprises one or more extremities (10, 10?) provided with one or more suction members (12, 12?) connected to a vacuum source (18). At least two of the extremities (10, 10?) are rotatably arranged with respect to each other.

Abstract: A robotic end effector and method for use thereof are provided. The robotic end effector can include a rigid base structure (230), a plurality of rigid proximal phalanges (210) connected to the rigid base structure (230), a plurality of rigid distal phalanges (200) connected to the proximal phalanges (210) respectively, and a plurality of bellows (250), wherein one end of a proximal phalange (210) is connected to one end of the base structure (230) by a bellows (250), wherein one end of a distal phalange (200) is connected to a proximal phalange (210) by a bellows (250), and wherein a portion of the base structure (230), each proximal phalange (210), and each distal phalange (200) are covered in silicone rubber. It can achieve a high output force to input pressure ratio, and cost efficiently.

Abstract: Disclosed is a self-lifting robot with multi-jointed arm. The robot includes a multipart housing, a traction drivetrain capable of generating translational and rotational motion of the self-lifting robot on a working surface, and a deployment hook configured to release from a storage hanger, thus depositing the self-lifting robot onto the working surface, and configured to re-attach to the storage hanger, thus lifting the self-lifting robot off of the working surface. The robot also includes a multi jointed arm, and a grabber disposed from a free-rotating wrist joint at a distal end of the multi-jointed arm, and configured to grab, hold, and release one or more target objects.

Abstract: A mounting head includes a first air passage and a second air passage through which air is capable of flowing; a first valve configured to switch air flowing through the first air passage between positive pressure and negative pressure; a second valve configured to switch air flowing through the second air passage between positive pressure and negative pressure; a common air passage configured to communicate with the tool, through which air to be supplied to the tool is capable of flowing; and a third valve configured to selectively cause the first air passage or the second air passage to communicate with the common air passage.