Te Connectivity Solutions Gmbh

Te Connectivity Services Gmbh

Anthony L Swann

Swapnilsinh Solanki

Roberto Francisco-Yi Lu

Du Wen

Sun Kyu Pak

Craig Roper

Kyle Mongold

Jiankun Zhou

Sonny O Osunkwo

Edward T Price, Iii

Xinping Deng

Jeffrey Zerbe

Tim Darr

Scott Thomas Schlegel

Kevin Eshleman

Shu Wang

Albert W Wolfgang, Iii

Yiyun Fei

Edward Niswander Meyers

Dale F Pells

Tim Burk

Moises Gutierrez

Breanna Hardee

Maxwell Wolf

Timothy Schroeder

Andrew Spisak

A safeguard enclosure of an autonomous part processing system for enclosing an autonomous guided vehicle (AGV) is provided. The safeguard enclosure includes a frame having panels defining an enclosed space. The frame has an opening allowing the AGV to enter and exit the enclosed space. The frame surrounds a parking spot for the AGV in the enclosed space. The safeguard enclosure includes a safety system for controlling operation of the AGV. The safety system includes an AGV location sensor configured to detect presence of the AGV at the parking spot. The safety system configured to control operation of the AGV based on an AGV location signal from the AGV location sensor. The safety system includes a presence sensor configured to detect presence of an object other than the AGV in the enclosed space. The safety system configured to control operation of the AGV based on an object presence signal from the presence sensor.

Safeguard enclosure and method of operating an autonomous part processing system

An inspection system for inspecting an elongated product includes a platform having a rail, a product holder assembly having product grippers for holding the elongated product, and a vision system for inspecting the product. The vision system includes a carrier coupled to the rail and movable along the rail, a camera support coupled to the carrier and holding cameras configured to image the elongated product from different angles. The cameras move along an entire length of the elongated product to image the entire elongated product between a first end and a second end of the elongated product.

Inspection system and method

An autonomous mobile vehicle includes an automatic guided vehicle (AGV), a platform assembly coupled to the AGV, and a collaborative manipulator mounted to a support plate of the platform assembly. A safety sensor is coupled to the collaborative manipulator and includes a first proximity sensor fixed relative to the support plate and a second proximity sensor coupled to the collaborative manipulator proximate to a gripper of the collaborative manipulator and movable with an arm of the collaborative manipulator. The safety sensor determines when the gripper is located at a home position proximate to the support plate by detecting the second proximity sensor in proximity to the first proximity sensor.

Autonomous mobile vehicle

A reel handling machine includes first and second re-reeling assemblies coupled to a frame. The re-reeling assemblies each include a reel mount supporting a first reel and a re-reel mount supporting a second reel. The re-reeling assemblies operated to unwind a product strip from the first reel and rewind the product strip on the second reel. The reel handling machine includes a reel manipulator positioned proximate to the re-reeling assemblies configured to automatically remove the second reel from the re-reel mount after the product strip is rewound on the second reel and move the second reel to a remote location.

Reel handling machine

An autonomous mobile vehicle includes an AGV having a base, a motor coupled to the base, a wheel driven by the motor for moving the AGV, a battery coupled to the motor to power the motor, and an AGV controller for controlling movement of the AGV. The autonomous mobile vehicle includes a platform assembly coupled to the base. The platform assembly includes a frame defining a cavity and a support plate supported by the frame configured to support a collaborative manipulator. The platform assembly includes a collaborative manipulator controller received in the cavity configured to be operably coupled to the collaborative manipulator to actuate the collaborative manipulator in accordance with a control scheme. The platform assembly includes a safety controller received in the cavity electrically coupled to the battery of the AGV to control a power supply to the collaborative manipulator controller.

A film inspection system includes a film positioner having a film holder configured to hold a printed film having a printed layer on a substrate of the printed film. The film holder is configured to fix a perimeter of the printed film. The film positioner includes a film stretcher positioned relative to the film holder to interface with the printed film. The film stretcher is movable relative to the film holder to stretch the printed film at a stretch area while the perimeter of the printed film is fixed by the film holder. The film inspection system includes a vision system having an imaging device configured to image the printed film at a scan area within the stretch area. The film holder and the imaging device are movable relative to each other to move the scan area along the printed layer to image the printed layer of the printed film.

Method and apparatus for flattening and imaging a printed thin film product

A traffic management system for controlling an AGV includes a sensor arranged proximate to an intersection between first and second passages in a logistics facility. The sensor transmits sensing beams into the second passage to detect presence of a vehicle in the second passage. The sensor transmits sensor signals based on the presence of the vehicle in the second passage. The traffic management system includes a traffic controller receiving the sensor signals and communicating with the AGV causing the AGV to stop at a stopping location in the first passage and restrict movement of the AGV into the second passage when the object is detected.

Traffic management system and method

A vehicle control device for an AGV includes a call box having a user interface and a manual activation element at the user interface accessible to a user. The manual activation element generates a manual call signal. The vehicle control device includes an automated activation element operably coupled to a sensor and receiving a sensor signal from the sensor. The automated activation element generates an automated call signal based on the sensor signal without user intervention. The vehicle control device includes a communication device held by the call box that receives the manual call signal and receiving the automated call signal and communicates with the AGV to trigger operation of the AGV based on both the manual call signal and the automated call signal.

Control system for automatic guided vehicle

A vision inspection system includes a rotary sorting platform rotated about an axis to rotate parts. The vision inspection system includes an inspection station positioned adjacent the rotary sorting platform including imaging devices to image different sides of the parts. The vision inspection system includes a vision inspection controller receiving images from the imaging devices and processing the images from the imaging devices based on an image analysis model. The vision inspection controller processes the images to determine inspection results for each of the parts. The vision inspection controller has an artificial intelligence learning module operated to update the image analysis model based on the images received from the imaging devices.

Vision inspection system and method of inspecting parts

Growing community of inventors

Lancaster, PA, United States of America

Anthony L Swann