A system and method for feeding and fixing snap connectors of a ripple fold curtain system, in which a drum mixes loose snap connectors, successively introduced individually in an opening in the drum for letting one of the snap connectors out. The orientation of the one of the snap connectors is forced by having the opening have a height smaller than the width of the snap connectors. After travelling while maintaining their orientation aligned with motion, each snap connector is received in the same orientation at a receptacle comprising shoulders for retaining a larger portion of the one of the snap connectors, the receptacle retaining it at a definite location and maintaining the orientation. A rivet is positioned on that larger portion of the snap connector and snapped using a hammer of which the surface is parallel with the snap connector and underlying receptacle bottom surface.

A system and method for feeding and fixing snap connectors of a ripple fold curtain system, in which a drum mixes loose snap connectors, successively introduced individually in an opening in the drum for letting one of the snap connectors out. The orientation of the one of the snap connectors is forced by having the opening have a height smaller than the width of the snap connectors. After travelling while maintaining their orientation aligned with motion, each snap connector is received in the same orientation at a receptacle comprising shoulders for retaining a larger portion of the one of the snap connectors, the receptacle retaining it at a definite location and maintaining the orientation. A rivet is positioned on that larger portion of the snap connector and snapped using a hammer of which the surface is parallel with the snap connector and underlying receptacle bottom surface.

An in-line fastener track selection device comprises a stator having first, second and third fastener conduits; a rotor, rotatably mounted with respect the stator about a rotation axis, and comprising a rotor body and a connection space. The rotor is rotatable between a first position in which the connection space adjoins the first and second fastener conduits, such that, in use, a fastener may pass between the first and second fastener conduits via the connection space, and a second position in which the connection space adjoins the first and third fastener conduits, such that, in use, a fastener may pass between the first and third fastener conduits via the connection space.

An in-line fastener track selection device comprises a stator having first, second and third fastener conduits; a rotor, rotatably mounted with respect the stator about a rotation axis, and comprising a rotor body and a connection space. The rotor is rotatable between a first position in which the connection space adjoins the first and second fastener conduits, such that, in use, a fastener may pass between the first and second fastener conduits via the connection space, and a second position in which the connection space adjoins the first and third fastener conduits, such that, in use, a fastener may pass between the first and third fastener conduits via the connection space.

A method for sensing the presence of a fastener in a feeder and fastening system for joining a fastener to a workpiece comprises a head with a receiving element for receiving the fastener, a joining drive element, a feeder for feeding fasteners from a magazine to the receiving element, a feeding tube adapted to receive fasteners from the magazine and through which the fasteners are driven to the receiving element by compressed air. The feeder further includes a pressure sensor for sensing the pressure of compressed air flowing through the feeding tube and a microprocessor for processing and computing the pressure to detect the presence or passage of a fastener in the feeding tube.

Described herein are methods and manufacturing systems that select fasteners for pre-feeding and, in some examples, pre-feed the selected fasteners. These methods involve aggregating historical manufacturing data, comprising hole identifications and fastener grip lengths, previously selected for these hole identifications. A specific grip length and a corresponding fastener repeatability rating are then determined for each hole identification from this historical manufacturing data. For example, a specific grip length corresponds to the most frequently selected grip length for this hole identification. In some examples, the historical manufacturing data is analyzed using machine learning. The fastener repeatability rating is compared to an operating threshold, in some examples, to determine if the corresponding grip length should be selected for a particular hole location. This grip length selection is then used for pre-feeding a corresponding fastener into an automated drilling machine, thereby saving significant processing time relative to conventional processes.

A device for inserting the blind fastener in the fastening site, a pulling and extracting device for swaging the blind fastener in the fastening site and a passive compliance device that binds the inserting device to the pulling and extracting device. The passive compliance device allows the installation of the bind fastener without sensors.

A device for inserting the blind fastener in the fastening site, a pulling and extracting device for swaging the blind fastener in the fastening site and a passive compliance device that binds the inserting device to the pulling and extracting device. The passive compliance device allows the installation of the bind fastener without sensors.

A method and rivet apparatus comprise a rivet block, the rivet block comprising a rivet block, a pin bore, and a rivet feed bore. The rivet block is comprised of a top end and a bottom end. The pin bore includes a top end and a bottom end and is disposed within the rivet block. The pin bore extends from the top end to the bottom end of the rivet block and guides a rivet pin that slides downward within the pin bore to push a head of a rivet into a workpiece. The rivet feed bore includes a top end and a bottom end and is disposed within the rivet block. The rivet feed bore extends from the top end to the bottom end of the rivet block, accepts the rivet at the top end of the rivet feed bore, and guides the rivet to the bottom end of the rivet feed bore. The rivet feed bore intersecting the pin bore between the top end and the bottom end of the pin bore at an oblique angle.

A method and rivet apparatus comprise a rivet block, the rivet block comprising a rivet block, a pin bore, and a rivet feed bore. The rivet block is comprised of a top end and a bottom end. The pin bore includes a top end and a bottom end and is disposed within the rivet block. The pin bore extends from the top end to the bottom end of the rivet block and guides a rivet pin that slides downward within the pin bore to push a head of a rivet into a workpiece. The rivet feed bore includes a top end and a bottom end and is disposed within the rivet block. The rivet feed bore extends from the top end to the bottom end of the rivet block, accepts the rivet at the top end of the rivet feed bore, and guides the rivet to the bottom end of the rivet feed bore. The rivet feed bore intersecting the pin bore between the top end and the bottom end of the pin bore at an oblique angle.