An electronic component handler including a first holding section and a second holding section holding an electronic component by adsorption, a suction section giving the first holding section and the second holding section an adsorption force to adsorb the electronic component, a suction flow path, a first branch flow path, a second branch flow path, a first opening/closing section opening and closing the first branch flow path, a second opening/closing section opening and closing the second branch flow path, a first pressure measurement section measuring first pressure inside the first branch flow path, a second pressure measurement section measuring second pressure inside the second branch flow path, and a control section, in which the control section opens the first branch flow path by the first opening/closing section and causes the first holding section to adsorb the electronic component, and checks whether or not the first pressure is lower than preset pressure when the second branch flow path is opened by the second opening/closing section.

A system including a lumber-pickup arm having a plurality of suction cups in a staggered configuration to pick up a piece of lumber that may be cracked, crooked or askew on the pile of lumber from which it is to be picked. In some embodiments, the system performs a method that includes locating a selected piece of lumber to be picked up; lowering the pickup arm so that at least some of the plurality of suction cups are seated on a first surface of the selected piece of lumber; reducing air pressure within the at least some of the plurality of suction cups; raising and moving the pickup arm to move the piece of lumber to a first destination; and increasing air pressure within the at least some of the plurality of suction cups to release the piece of lumber at the first destination Cups not holding vacuum are deactivated.

A valve device comprising a valve housing with a flow channel having a fluid outflow side and a fluid inflow side, a leaf spring having a fastening portion and a free portion. The fastening portion is connected to the valve housing such that, in a closed configuration, the free portion bears against a valve seat and that, in order to bring about an open configuration, the free portion, from the closed configuration, can be elastically bent away from the valve seat, and an actuating device which is designed to transfer the leaf spring from the closed configuration to an open configuration against an elastic reset force of the leaf spring.

A vacuum device for a material handling system includes a vacuum device body and a sealing element. The vacuum device body has a vacuum passageway in which H vacuum is generated in response to activation of a pressurized air supply that forces pressurized air through a venturi device. The sealing element moves to a sealing position to substantially seal the vacuum passageway when the air supply is activated, and is urged toward the sealing position via pressurized air that is diverted from an inlet of the vacuum device to the sealing element. The sealing element moves to substantially vent the vacuum passageway when the air supply is deactivated. The vacuum passageway may be in fluid communication with a vacuum cup, which seals against the object when the sealing element is at the sealing position and the vacuum generating device generates at least a partial vacuum in the vacuum passageway.

An vacuum device includes a suction pad vacuumed on a to-be-vacuumed surface of a vacuum target, and a bellows tube having the suction pad at one end in a telescopic direction and having an internal space that is expanded and contracted by pressure of air, the telescopic member being elongated and contracted by expansion and contraction of the internal space.

The multi-element pneumatic gripper equipped with a pump which enables attaching the products by a suction cup, is characterized by the fact that the gripper of a multi-element pneumatic telescopic actuator which ends on one side with a sucker with a weight and a steel ball inside the weight and on the other side is connected to the supply system, whereas an electromechanical uptake is located at the base of the first element of the pneumatic telescopic actuator, wherein in the first embodiment the supply system consists of a vacuum/pressure pump, suction and discharge lines, a valve which supplies air to the system, a three-way valve and a pressure sensor, and wherein in the second embodiment the supply system consists of a vacuum/pressure pump, a suction line, a valve which supplies air to the system and a pressure sensor.

A method for controlling a vacuum generator (3) in a vacuum system (10) for transportation of objects, which vacuum system (10) comprises a vacuum generator (3) driven by a compressed air flow via a first on/off valve (1), wherein the vacuum generator (3) is arranged to be brought in flow connection with the vacuum gripper means (6) comprised in the vacuum system (10), in order to supply vacuum to the vacuum gripper means (6) in result of the compressed air flow, wherein the vacuum system (10) comprises a second valve (2), which is arranged to supply compressed air into the vacuum system (10); one centralized pressure sensor (4) used for monitoring a system pressure (P) inside the vacuum system (10) and for adaptive blow-off; and a vacuum system controller (5), wherein if the on/off valve (1) is not flowing air to the vacuum generator (3), the vacuum system controller (5) indicates a state of no vacuum generation, and the second valve (2) is activated, allowing an amount of compressed air to flow into the vacuum-system (10) for blow-off, using vacuum system properties being characterized with respect to volume and flow-restriction in relation to the blow-off capacity of the blow-off function and for every release cycle wherein blow-off is terminated and excessive air injected into the system is released through the vacuum gripper means, analyzing pressure propagation following blow-off for calculating a duration of when the vacuum system (10) is being fully pressure-equalized (E) in parts of the vacuum gripper means by using a compensation factor (k), wherein the compensation factor (k) is stored and used for the next release cycle.

An end effector is disclosed for an articulated arm. The end effector includes a valve assembly including a plurality of supply channels, each supply channel including a supply conduit, a pressure sensor in fluid communication with the supply conduit, and a supply conduit plug. The supply conduit is in fluid communication with a vacuum source. During use, each supply conduit is either at vacuum such that the pressure within the supply conduit is substantially at a vacuum pressure, or is at a pressure that is substantially higher than vacuum pressure because the supply conduit plug has moved to block a portion of the supply conduit. The pressure sensor of each supply conduit provides a pressure sensor signal responsive to whether the pressure in the conduit is either substantially at vacuum or is at a pressure that is substantially higher than vacuum.

A robotic system includes an end effector with one or more fin grippers that have one or more vacuum ports. The fin grippers are made of elastic material. The fin grippers each include contact and exterior flanges joined together with a series of crossbeams. The crossbeams each define a tube opening to form a tube guide channel between the contact and exterior flanges. In one form, the vacuum ports are located at fingertip ends of the fin grippers, and the vacuum ports include vacuum cups.

A vacuum device for a material handling system includes a vacuum device body and a sealing element. The vacuum device body has a vacuum passageway in which H vacuum is generated in response to activation of a pressurized air supply that forces pressurized air through a venturi device. The sealing element moves to a sealing position to substantially seal the vacuum passageway when the air supply is activated, and is urged toward the sealing position via pressurized air that is diverted from an inlet of the vacuum device to the sealing element. The sealing element moves to substantially vent the vacuum passageway when the air supply is deactivated. The vacuum passageway may be in fluid communication with a vacuum cup, which seals against the object when the sealing element is at the sealing position and the vacuum generating device generates at least a partial vacuum in the vacuum passageway.