Tyco Electronics (Shanghai) Co., Ltd.

Te Connectivity Corporation

Shenzhen Ami Technology Co., Ltd

Innogetic Technology Co., Ltd.

Tyco Electronics (Dongguan) Co. Ltd

Te Connectivity Germany Gmbh

Zhuhai Yingzhi Tech Co. Ltd.

Roberto Francisco-Yi Lu

Dandan Zhang

Lvhai Hu

Yun Liu

Lei Zhou

Liming Xin

Fengchun Xie

Kok Wai Wong

Yu Zhang

Qinglong Zeng

George J Dubniczki

Hongzhou Shen

Yingcong Deng

Zhiyong Dai

Hang Lee

Qinlong Zeng

Lyhai Hu

An ultrasonic cleaning system comprises a cleaning tank containing a cleaning liquid, a moving and holding device configured to move a carrier into the cleaning tank and hold the carrier in the cleaning tank, and an ultrasonic wave generator mounted in the cleaning tank. A plurality of fiber optic ferrules are mounted on the carrier and are immersed in the cleaning liquid when the moving and holding device holds the carrier in the cleaning tank. The ultrasonic wave generator is adapted to emit an ultrasonic wave into the cleaning liquid to clean the fiber optical ferrules immersed in the cleaning liquid.

Ultrasonic cleaning system

An integrated equipment for processing a plurality of fiber optic ferrules comprises a polishing system, a ferrule cleaning system, a drying system, a wiping system, and a robot system. The polishing system polishes a plurality of front end faces of the plurality of fiber optic ferrules mounted on a carrier. The ferrule cleaning system cleans the carrier and the fiber optic ferrules on the carrier after the fiber optic ferrules have been polished. The drying system dries the carrier and the fiber optic ferrules on the carrier after the carrier and the fiber optic ferrules have been cleaned. The wiping system wipes the front end faces of the fiber optic ferrules on the carrier after the carrier and the fiber optic ferrules have been dried. The robot system transfers the carrier to the polishing system, the ferrule cleaning system, the drying system, and the wiping system.

Integrated equipment for processing fiber optic ferrule

An automatic fiber stripping system comprises a first stripping module, a second stripping module, and a heating device. The first stripping module and the second stripping module each have a stripping belt, a driven belt wheel, a driving belt wheel, and a stripping tool including a pressing portion. The stripping belts are tightened on the pressing portions and the stripping tools press the stripping belts on each of two opposite sides of an optical cable. A blade portion of one of the stripping tools cuts a notch in at least one of two side edges of an outer coating layer of the optical cable. The heating device heats and softens the outer coating layer of the optical cable. The stripping belts are driven to move relative to the optical cable by the driving belt wheels so as to strip off a segment of the outer coating layer from the notch.

Automatic fiber stripping system and method

A cleaning system comprises a first cleaning tank, a carrying and moving unit, a first cleaning spray head, and a rolling brush unit. The carrying and moving unit is configured to move a polishing film to be cleaned into the first cleaning tank and hold the polishing film in the first cleaning tank. The first cleaning spray head is configured to spray a cleaning liquid on the polishing film held in the first cleaning tank. The rolling brush unit is configured to brush the polishing film while the first cleaning spray head sprays the cleaning liquid on the polishing film.

Cleaning system for a polishing film

A drying system comprises a drying box, a carrier moving and holding device, and a high pressure jet device mounted in the drying box. The carrier moving and holding device is configured to move a carrier into the drying box and hold the carrier in the drying box. A plurality of fiber optic ferrules are mounted on the carrier. The high pressure jet device is adapted to spray a high pressure gas on the carrier held in the drying box to dry the fiber optic ferrules.

Drying system

A cutting system is disclosed. The cutting system comprises a moving mechanism, a cutter mounted on the moving mechanism, a support table having a material plate disposed thereon, and a fixation device including a pressing plate having a row of teeth defining a row of teeth slots. The row of teeth press the material plate on the support table while the moving mechanism drives the cutter to move along edges of the row of teeth slots. The cutter cuts a plurality of workpieces out of the material plate by a single cutting process.

Cutting system

An automatic calibration method for a robot system comprises providing a ball-rod member including a connection rod and a sphere connected to a first end of the connection rod, fixing an opposite second end of the connection rod to an end execution tool mounted on a flange of a robot, and controlling the robot to move a center of the sphere to a same target point in a plurality of different poses under the guidance of a vision sensor. A transformation matrix of the center of the sphere with respect to a center of the flange is calculated based on pose data of the robot at the same target point. A transformation matrix of a center of the end execution tool with respect to the center of the flange is calculated according to a formula.

Automatic calibration method for robot system

An automatic fiber cleaning system comprises a first cleaning module, a second cleaning module, and a sprayer. Each of the first cleaning module and the second cleaning module has a cleaning belt, a driven belt wheel on which an unused portion of the cleaning belt is wound, a driving belt wheel on which a used portion of the cleaning belt is wound, and a pressing tool on which the cleaning belt is tightened. The sprayer sprays a cleaning agent onto the cleaning belts. The pressing tools press the cleaning belts on both sides of an optical fiber and clamp the optical fiber. The cleaning belts move relative to the optical fiber by the driving belt wheels to wipe the optical fiber.

Automatic fiber cleaning system and method

A pre-tin shaping system is disclosed. The pre-tin shaping system comprises a base securely holding a circuit board having a pre-tin layer, a heat-press unit having a contact tip, and a movable unit moving the heat-press unit relative to the base. The contact tip is movable to shape the pre-tin layer.

System for pressing pre-tin shaping

An automatic distributor is disclosed. The automatic distributor comprises a base, a storage device mounted on the base to store a plurality of components with different shapes thereon, a recognition device configured to recognize the components stored on the storage device, and a pickup device configured to pick up the components based on a recognition result of the recognition device.

Automatic distributing equipment

An automatic injection system for injecting an adhesive into a plurality of bores of a multi-bore ferrule comprises an injector, a first clamp holding the ferrule at a first adhesive injection station, and a second clamp holding the ferrule at a second adhesive injection station. The injector injects the adhesive into an injection opening in the ferrule. A plurality of optical fibers are not disposed in the bores of the ferrule and the injector injects the adhesive into the ferrule until the bores are fully filled with the adhesive at the first adhesive injection station. The optical fibers are disposed in the bores of the ferrule filled with the adhesive and the injector again injects the adhesive into the ferrule at the second adhesive station to compensate for a loss of adhesive during an insertion of the optical fibers into the bores.

Automatic injection system and method of manufacturing ferrule

A wiping system comprises a support table, a conveying unit configured to convey a wiping belt onto the support table, a carrier holding device configured to hold a carrier on which a plurality of fiber optic ferrules are mounted, a carrier pressing device configured to press the carrier on the support table with a plurality of front end faces of the fiber optic ferrules in direct contact with the wiping belt, and a first base on which the support table is mounted. The carrier holding device and the carrier pressing device are slidably mounted on the first base. The carrier pressed on the support table is movable back and forth relative to the support table in a first horizontal direction while the front end faces of the fiber optic ferrules remain in direct contact with the wiping belt.

Wiping system

A system for automatically inserting fibers is disclosed. The system comprises a cable having a plurality of fibers, a ferrule having a plurality of bores, a moving mechanism movable in a first direction, a second direction, and a third direction that are perpendicular to each other, a cable holder mounted on the moving mechanism and holding the cable, and a vision device. The moving mechanism moves the cable holder under the guidance of the vision device to align the plurality of fibers with the ferrule and insert the plurality of fibers into the plurality of bores.

Growing community of inventors

Berwyn, PA, United States of America

Roberto Francisco-Yi Lu