A pressing device for pressing a first component, such as a roof panel, onto an additional component, such as one or more a vehicle side bodywork components or vehicle side bodywork supports. A hose is arranged in a housing and is filled with a fluid to selectively press the first component onto the additional component to facilitate a laser brazing operation by closing a gap between the first component and the additional component. A T-shaped pressure element is arranged in the housing and is moved relative to the housing by controlling the pressure of the fluid supplied to the hose.

A dynamic mount for a manufacturing apparatus, the dynamic mount including a housing, an actuation assembly and a support assembly. The housing includes a first axis along a length of the housing and a second axis along a height of the housing, the second axis being perpendicular to the first axis. The actuation assembly is movable along the first axis. The support assembly having a first portion moving between a first position and a second position along the second axis as the actuation assembly moves along the first axis. The first portion of the support assembly prohibiting movement of a second portion of the support assembly when in the first position. The second portion of the support assembly having six degrees of freedom when the first portion is in the second position.

Certain embodiments described herein are directed to devices which can be used to safely secure two or more workpieces to each other, e.g., to secure a cabinet face frame to a cabinet frame. In some examples, the device comprises a base configured to engage a first surface of the first workpiece and to receive an attachment device. The base can also be configured to engage a first surface of a second workpiece. The device may also comprise piston means configured to engage the second workpiece at a second surface. The device may comprise one or more plungers that can be used to actuate the attachment device to permit fastening of the workpieces once properly arranged. Methods of using the device are also described.

A chuck body includes a base, a fixed gripper finger, a cylinder mount, a slide, and a movable gripper finger. The base includes a planar member. The fixed gripper finger is fixedly provided on the planar member at a position spaced from a longitudinal end of the planar member. The cylinder mount is mounted on the planar member, and includes a cylinder and a linear actuator operably engaging the cylinder to linearly move the cylinder in a longitudinal direction of the planar member toward and away from the fixed gripper finger. The slide is secured to a distal end of the cylinder and is integrally movable with the cylinder. The movable gripper finger is secured to the slide and positioned to cooperate with the fixed gripper finger to grip an associated work object when moved toward the fixed gripper finger by the linear actuator.

An object inspection apparatus according to an embodiment disclosed herein includes: a first flipper apparatus configured to rotate a first object; a second flipper apparatus configured to rotate a second object; and a single camera device configured to move from a position corresponding to one of the first flipper apparatus and the second flipper apparatus to a position corresponding to the other, the camera device being configured to inspect object surfaces of the first object and the second object. Each of the first flipper apparatus and the second flipper apparatus includes at least one flipper unit.

The invention relates to a clamping system (1) comprising a clamping jaw (7) mounted on the shaft of a pneumatic or hydraulic cylinder (4), wherein said cylinder has a structure which drives the clamping jaw towards its clamping position when the pneumatic or hydraulic energy supply of the cylinder is interrupted, the pneumatic or hydraulic energy supply of the cylinder opposing the clamping, and where means (8) are provided for locking the cylinder when the clamping jaw is in a non-clamped position.

A remote jig control system may comprise a jig configured to place a car body to a particular position, a wireless magnetic sensor installed in the jig, a control panel wirelessly connected with the wireless magnetic sensor via first wireless communication to receive state information about the jig from the wireless magnetic sensor, a gateway connected with the control panel via the first wireless communication to receive the state information, a user terminal connected with the gateway via second wireless communication to receive the state information; and monitoring server configured to receive the state information from the gateway and store the state information, wherein the control panel is configured to be controlled through the user terminal to generate a jig control signal corresponding to the state information.

A clamping unit includes a clamping mechanism that takes a clamping state when a pressure in a pressure-acting chamber defined in a case is equal to or less than a predetermined threshold value, and takes an unclamping state when the pressure in the pressure-acting chamber is larger than the predetermined threshold value. The case of the clamping unit has a first outer side surface and a second outer side surface that are provided with a first opening portion and a second opening portion, respectively, which are in communication with each other through a supply and discharge port via the pressure-acting chamber.

A chuck apparatus includes a first rotating shaft provided with a first gripping member, a second rotating shaft provided with a second gripping member, and a power transmission mechanism configured to convert reciprocating movement of a piston unit into rotational movement of the first rotating shaft and the second rotating shaft. The first rotating shaft and the second rotating shaft are arranged side by side in a direction of displacement of the piston unit.

A piston cylinder has a piston housing including a bore. A piston assembly is movable in the piston cylinder bore. The piston assembly includes a piston disk and a piston rod. A lock piston is movable in the piston cylinder. A lock plate is pivotally secured in the piston housing bore. The lock plate is contacted by the lock piston to move the lock plate into an unlocked position when fluid pressure is applied to the lock piston. A biasing mechanism is in contact with the lock plate. The biasing mechanism moves the lock plate into a locked position when fluid pressure is released or reduced on the lock piston.