The two "fingers" of the robot gripper have built-in intelligence and advanced technology that mimics the way humans instinctively use our sense of touch when we grab things to move them.
James Vincent for The Verge: Each muscle consists of a sealed bag filled with air or fluid, containing a folding origami structure that functions as the skeleton.
Mississippi's WALT Machine Inc. specializes in high-precision optical work for scientific camera assemblies. Each spring WALT Machine must meet a massive challenge: Deliver around 6000 camera housings in 2 months' time, with only one CNC machine.
Tim Sandle for Digital Journal: A newly created robotic gripper has researchers at University of California - San Diego excited. The 'friendly' new robot could help advance the automation of construction and building works.
If I make a change on a design, I have to be able to apply the changes quickly. And since we are competing against bigger, high-end eyewear manufacturers, we have to deliver the highest quality even if we do quite smaller productions.
Phys.org: Soft robots do a lot of things well but they're not exactly known for their speed. The artificial muscles that move soft robots, called actuators, tend to rely on hydraulics or pneumatics, which are slow to respond and difficult to store. Dielectric elastomers, soft materials that have good insulating properties, could offer an alternative to pneumatic actuators but they currently require complex and inefficient circuitry to deliver high voltage as well as rigid components to maintain their form—both of which defeat the purpose of a soft robot. Now, researchers at the Harvard John A. Paulson School of Engineering and Applied Sciences (SEAS) have developed a dielectric elastomer with a broad range of motion that requires relatively low voltage and no rigid components. They published their work recently in Advanced Materials. Cont'd...
Acquisition enables Piab to enter the large area vacuum gripper market at full speed. A strategic step towards building the global leader in industrial automation components
Near-field communication (NFC) protocols allow data from intelligent vacuum components to be read directly from the processor of a device to a mobile end device, opening up totally new opportunities for optimizing production processes. This is what Industry 4.0 is all about.
The pioneer in grippers is now offering its customers a pneumatic parallel gripper in the form of the GPP1000 series.
SCHUNK has extended its series of digitally controllable magnetic grippers with the compact SCHUNK EGM-M monopole gripper.
SCHUNK has introduced several improvements on the original PGN-Plus and has announced the newest generation gripper, PGN-Plus-P. Enlarged supporting dimensions between the six load-bearing shoulders of the multi-tooth guidance allow higher moment capacity which can accommodated longer fingers and greater loads.
The EGP from SCHUNK is the electric small part gripper with the most compact performance on the market. SCHUNK expanded the EGP series with a smaller size (25) which weighs 110g and has a stroke of 3 mm per finger.
Engineers use the environment to give simple robotic grippers more dexterity. Engineers at MIT have now hit upon a way to impart more dexterity to simple robotic grippers: using the environment as a helping hand. The team, led by Alberto Rodriguez, an assistant professor of mechanical engineering, and graduate student Nikhil Chavan-Dafle, has developed a model that predicts the force with which a robotic gripper needs to push against various fixtures in the environment in order to adjust its grasp on an object.
1,700 new combinations
This unit allows highly dynamic and smooth pick & place operations in confined spaces of the complex assembly plants, assembling electronics, medical, and consumer goods with rotating angles of 90° or 180.
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Space, or the lack of it, can be a challenge when placing barcodes or Data Matrix symbols on components. However, readable barcodes are critical to component traceability, time/date stamping, work in progress (WIP) tracking, and recall management. MicroHAWK UHD smart cameras can decode very small and difficult-to-read barcodes, including Data Matrix two-dimensional (2D) symbols and direct part marks (DPM). Users can rely on the MicroHAWK UHD to read symbols with an x-dimension almost invisible to the naked eye!