A chip detection device, a chip detection system and a control method. The chip detection device includes a support plate (100), a probe holder (110) disposed on an upper part of the support plate (100), a detection platform, and a first driving device (120) connected to the probe holder (110). The chip detection system includes a cabinet (600), which is internally provided with a chip detection device, a controller, a loading manipulator (910), an unloading manipulator (920), a chip tray bracket (700) disposed on a side of the loading manipulator (910), and a distribution tray (800) disposed on a side of the unloading manipulator (920). According to the chip detection device, the chip detection system and the control method, during the rotation of the turntable (200), the filling, detection and classification of the chips are all controlled to be automatically completed under the control of an automatic control program, which greatly improves the efficiency of the chip detection.

There is provided a component feeding device including multiple component replenishing devices configured to replenish with components having different shapes; multiple stages on which the components replenished from the multiple replenishing devices are scattered, and a control section configured to cause the multiple replenishing devices to replenish the components to the respective stages at an arbitrary timing. There is provided a component feeding method for supplying components, having different shapes and being respectively replenished onto multiple stages from multiple replenishing devices, to a component mounting device with the components being respectively scattered on the multiple stages, wherein amounts of the components is capable of being respectively changed for each of the multiple stages.

A centering device (1) for centering flat workpieces (700-706) comprises a centering station (100) having at least a first and a second gripping device (300, 301) for gripping the workpiece (700-706), and conveying means for conveying workpieces (700-706) in a conveying direction to the centering station (100). The first and the second gripping device (300, 301) can each be moved horizontally by a first and a second guiding device (200, 201), respectively, and the first and the second gripping device (300, 301) can rotate freely about an axis.

A vacuum tube assembly for removing material is disclosed, including: a vacuum generator configured to generate a vacuum airflow; one or more tubes coupled to the vacuum generator and configured to channel the vacuum airflow; and an actuation mechanism coupled to the one or more tubes, wherein the actuation mechanism is configured to actuate at least one tube from a first position relative to a material stream to a second position relative to the material stream, wherein the first position is farther from the material stream than the second position.

Disclosed is a biological sample storage and retrieval apparatus, comprising a storage device, with the interior thereof being a cryogenic environment for storing a biological sample, and the biological sample comprising cryogenic vials and a cryogenic shelf for holding the cryogenic vials; an operation device detachably connected to the storage device for receiving a transfer tank for holding the biological sample and performing storage and retrieval of the biological sample in the storage device by means of the transfer tank; and a sealing device, the sealing device being used for sealing the storage device when the storage device is detached from the operation device. A cryogenic storage and retrieval method is also provided.

The present invention relates to a robotic maneuvering system for maneuvering objects by means of an adhesive attachment. The robotic maneuvering system comprises a gripper finger connected to a gripper arm. The gripper finger is configured to grasp an object to be manipulated, by means of an adhesive contact. The gripper arm maneuvers the object to a desired location and the gripper finger releases the object at the desired location. The present invention also relates to a corresponding method.

A system is provided comprising a carton conveyor and a bypass carton accumulator adjacent to, and interfaced with, the carton conveyor. The bypass carton accumulator may comprise: a carton pick apparatus comprising a carton pick head; at least one stop device comprising a stopper movable between a first and a second position; and a storage apparatus. When in the first position, the stopper does not interfere with the flow of cartons along the conveyor and when in the second position, the stopper engages with a carton to stop a flow of cartons along the conveyor. The carton pick apparatus may be configured to pick up via the carton pick head a set of cartons from a pick-up zone of the carton conveyor after the stopper has moved to its second position and place the set of cartons in the storage apparatus.

According to one embodiment, a hand includes a first holding unit, and a second holding unit. The first holding unit includes a plurality of first holding portions capable of holding an article. A plurality of the first holding units is provided in a second direction and is movable independently of each other in a first direction crossing the second direction. The second holding unit is movable in a third direction crossing a plane parallel to the first direction and the second direction. The second holding unit includes a plurality of second holding portions capable of holding the article.

An apparatus and method for manufacturing glass containers handles the containers individually after a hot forming process and annealing to prevent glass-to-glass contact. By handling the containers individually and preventing glass-to-glass contact damage to the containers in the form of checks and scratches is avoided. To prevent contact of the containers and damage arising from the contact, the equipment including conveyors, pushers, starwheels, shuttles, and transfer heads that move the glass containers through the apparatus maintains the glass containers in uniform spaced relationship at each stage of container processing until the containers are packaged.

A mounting apparatus includes: a bonding stage; a base; a mounting head for performing a temporary press-attachment process in which semiconductor chips are suction-held and temporarily press-attached to a mounted object and a final press-attachment process in which the temporarily press-attached semiconductor chips are finally press-attached; a film arrangement mechanism arranged on the bonding stage or the base; and a controller which controls driving of the mounting head and the film arrangement mechanism. The film arrangement mechanism includes: a film feed-out mechanism which has a pair of feed rollers with a cover film extended there-between and successively feeds out a new cover film; and a film movement mechanism which moves the cover film in a horizontal direction with respect to a substrate.