Delaware Capital Formation, Inc.

Gm Global Technolgoy Operations, Inc.

Stabilus Motion Controls Gmbh

Cpi Products, L.c.

Maurice Perlman

Keith S Attee

Yhu-Tin Lin

Don Hufford

Dooil Hwang

Kenneth Paul Dellach

James W Geary

Jason M Kniss

Orlando Trujillo

Joerg Pohlers

Jeffery J Mruzik

Ken Dellach

Gary R Michels

Benjamin Jennings

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.

Auto-release vacuum device

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 a 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.

A vacuum cup assembly has a vacuum device with a vacuum passageway and a venturi. A vacuum cup is configured to engage an object. The venturi generates an at least partial vacuum at the vacuum cup when the vacuum cup is engaged with an object. The vacuum cup seals against the object when the venturi device generates the at least partial vacuum. A noise reducing device is at a discharge of the venturi. The noise reducing device has a housing defining a chamber, a plurality of spaced exit openings and a movable cap. Air discharged at the venturi is diverted in the chamber and flows out through the exit openings. The movable cap covers the exit opening to override the vacuum to enable the vacuum cup to be positioned or repositioned on the object.

Override for an automatic release vacuum device

An end-effector assembly includes a master boom, a frame rail coupled to the master boom, at least one branch rail movably coupled to the frame rail by a branch lock, and a swing arm movably coupled to the at least one branch rail by a swing lock. The swing lock includes a clamp configured to movably secure the swing arm to the branch rail. A pivot shaft extends through the clamp and the swing arm and is configured to rotationally secure the swing arm to the clamp. A swing plate is secured to the pivot shaft and is configured for engagement with a configuration tool. Further, a locking fastener extends through the swing plate and into the pivot shaft. The locking fastener is configured to lock and unlock the swing lock in position along the branch rail.

Robotic system with reconfigurable end-effector assembly

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 a 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.

A robotic system includes a robot, an end-effector assembly disposed at a distal end of a main boom, rotatable parallel frame rails, and tool support branches. Tool modules are connected to a tool support branch and rotatable/translatable with respect to a respective branch axis. A configuration tool has a control block engaged by a wrist of the robot and a work tool. A controller commands the robot to automatically configure the end-effector assembly by adjusting the frame rails and/or tool support branches or tool modules using the work tool, doing so in response to an identified work task. Engagement of the wrist with the tool changer is commanded and the identified work task is executed using the end-effector assembly. A configuration stand may automatically flip the end-effector assembly to a configuration location, command engagement of the wrist with the tool changer, and configure the end-effector assembly.

A suction cup assembly has a housing with an actuator in the housing. A flexible cup is coupled with the housing. The actuator movement causes the flexible cup to move between at least two positions. In a first position, the flexible cup moves into an increased volume position. In a second position, the flexible cup moves into at least a neutral volume position. In the increased volume position, the flexible cup seals with a surface. In the neutral volume position, the flexible cup releases from the surface.

Electric suction cup

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 a 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 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.

A material handling system has a vacuum cup assembly engagable with an object and movable to move the object using a pressurized air source, a vacuum cup, a venturi device and a vacuum valve and auto-release valve. The venturi device is in fluid communication with the vacuum cup and connected to the supply line so that pressurized air can be supplied to and through said venturi device to generate a partial vacuum when the perimeter seal of the vacuum cup is engaged with the object surface. The vacuum valve may open and close the supply line at a location upstream of the venturi device in response to a pressure level at the vacuum cup cavity. The auto-release valve may vent the vacuum cup cavity to atmosphere in response to reduced pressure in the supply line at a location upstream from the vacuum valve.

Growing community of inventors

Oak Park, MI, United States of America

Maurice Perlman