A receiver-fastener apparatus (200) comprises a receiver-fastener housing (270), a receiver-fastener turret (202), an indexing-collet assembly (203), an anvil (204), a receiver-fastener delivery assembly (205), and a swager assembly (206). The receiver-fastener turret (202) is selectively rotatable relative to the receiver-fastener housing (270) about a receiver-fastener-turret rotation axis (Z). The indexing-collet assembly (203) is selectively movable relative to the receiver-fastener housing (270) between an indexing-collet-assembly extended position and an indexing-collet-assembly retracted position along an indexing-collet-assembly axis (Y) that is parallel to the receiver-fastener-turret rotation axis (Z). The anvil (204) is selectively movable relative to the receiver-fastener turret (202) along an anvil axis (X) that is parallel to the receiver-fastener-turret rotation axis (Z). The receiver-fastener delivery assembly (205) is configured to operatively position receiver fasteners (506) for operative placement on shank fasteners (504), corresponding to the receiver fasteners (506). The swager assembly (206) is movable relative to the receiver-fastener turret (202) along a swaging axis (W) that is parallel to the receiver-fastener-turret rotation axis (Z).

A component delivery device includes an actuator that displaces an outer sleeve and an inner rod positioned within a cavity of the outer sleeve together from a retracted configuration to an extended configuration to move an ejectable component in relation to a feed head. The actuator further displaces the outer sleeve and not the inner rod to an ejection configuration to displace the ejectable component toward a workpiece. Displacing the outer sleeve and not the inner rod causes the outer sleeve to translate over the inner rod and compresses a biasing member that is disposed within the cavity and in engagement with the inner rod.

A tooling system has means for applying a vacuum to hold the fastener at the working end of the tool. A cavity in a hollow pusher pin has lateral ports for exclusively providing a airway between the vacuum source and the fastener. In other embodiments of the invention the pusher pin has fastener-gripping jaws in the form of balls moveable within lateral passageways in the pusher pin open into the cavity. The balls are biased inwardly against the fastener by an outer elastic band on the tool body which encircles the pusher pin. When adapted for installing magnetic-release type fasteners, the bottom end of the pusher pin is of reduced diameter for insertion into a magnetic release fastener. The fastener-receiving panel is supported by an anvil having a magnet whereby the fastener is released from the pusher pin as the fastener is pressed into the panel.

A device for setting a connecting element on a workpiece includes a setting unit having a setting head which is movable in a feed direction into a working position, the connecting element can be fastened on the workpiece by the setting head, and a feed unit can feed the connecting element to the setting head. The feed unit is movable in the feed direction from an initial position into an intermediate position for transferring a connecting element to the setting head. A method for setting a connecting element on a workpiece by using the device is also provided.

The present disclosure relates to a clamping apparatus and a transport device. The clamping apparatus comprises: a base; a support plate, stacked with the base in a vertical direction; a locking assembly, by which the support plate is connected to the base, wherein the locking assembly comprises a first locking member disposed on the support plate and a second locking member disposed on the base, the support plate is movable in the vertical direction and is capable of being connected to or separated from the base by connection or separation of the first locking member to or from the second locking member, and a horizontal load is able to be transmitted between the support plate and the base via the locking assembly; and a clamping assembly disposed on a surface of the support plate facing away from the base.

A robotic grommet installer includes a robotic arm and an installation unit. The installation unit includes a rotary grommet holder rotatively coupled to the robotic arm and an installer coupled to the robotic arm. The rotary grommet holder includes a plurality of grommet chambers spaced circumferentially about a rotational axis of the rotary grommet holder. Each grommet chamber of the plurality of grommet chambers is configured to hold a plurality of grommets. The installer is configured to retrieve a grommet from the rotary grommet holder, wherein the rotary grommet holder is configured to rotate to align the installer with an available grommet positioned within one of the plurality of grommet chambers.

A patch applicator arrangement for securing a patch over a hole in a vehicle part. The arrangement provides a robotic arm having at least one movable joint that allows the robotic arm to move about several axes. At the end of the robotic arm is a spindle that has several spring loaded patch applicators connected. The arrangement also includes a patch dispensing apparatus that the arrangements uses along with the robotic arm to place patches over holes in a vehicle part. The arrangement also provides a verification method to make sure the holes have been properly covered.

The utility model discloses an ejection device, comprising a housing, an ejector, a rotor, a drive unit and guide units, wherein the housing is a hollow structure with an opening; the ejector is disposed in the housing; the drive unit drives the rotor to rotate; during rotating, the rotor drives the ejector to rotate along the circumference of the housing and drives the ejector to move toward the opening; guide slots are formed on the inner wall of the housing; the guide slots are disposed along the ejection direction of the ejector; and the guide units are disposed on the outer wall of the ejector and slidably disposed in the guide slots. The ejection device provided by the utility model is not only easily operated, but also simple in structure and small in size, does not require a large magnet, and can reduce the product weight.

A component delivery device includes an actuator that displaces an outer sleeve and an inner rod positioned within a cavity of the outer sleeve together from a retracted configuration to an extended configuration to move an ejectable component in relation to a feed head. The actuator further displaces the outer sleeve and not the inner rod to an ejection configuration to displace the ejectable component toward a workpiece. Displacing the outer sleeve and not the inner rod causes the outer sleeve to translate over the inner rod and compresses a biasing member that is disposed within the cavity and in engagement with the inner rod.

A fastener dispenser tool for kitting and dispensing a plurality of fasteners comprises a retention section, a presentation section extending from the retention section, and a retention slot extending along the retention section and the presentation section. The retention slot is operable to retain the plurality of fasteners for dispensing therefore. A presentation slot extends along the presentation section and is sized to receive a tool bit engageable with a lead fastener. The retention slot and presentation slot are sized, such that the plurality of fasteners are each slidable through the retention slot along the presentation section to facilitate dispensing of the lead fastener from the presentation section. The presentation section can be formed at a curve relative to the retention section, to provide clearance of retained fasteners from hardware being fastened by the lead fastener. Associated systems and methods are provided.