What would you do if you saw a robot approach you and start talking to you? How would you react if a robot looked sad when you walk away? Would you enjoy a robot rolling up to your table in a restaurant and showing you the menu?
Sensing is very important for robots to perform the functions that they were developed to execute. Sensing capabilities, such as sight, touch, and hearing are making robots appear more human. These capabilities are available because of algorithms that require feedback.
It is important to know the requirements of your target customer base. For a general purpose product this can be quite difficult. Some users will only be interested in monitoring inputs, be they digital or analogue. Others may be interested only in controlling outputs. Others again may have requirements for both input monitoring and output control.
Grabit's electroadhesion grippers are an enabling technology. We enable mobile robots to have energy efficient manipulation where conventions like vacuum are not feasible.
Will today's developers of military UGVs be tomorrow's manufacturers of autonomous civilian cars? Probably not. However, it is clear that the technologies developed for one will be adapted for another.
The new TP80 fast Picker robot from Stäubli Robotics introduces innovative, high-speed four-axis kinematics for pick and place applications. This high-speed robot achieves peak rates of well over 200 picks per minute.
An electronic nose has a gas-sensor array sampling system and a signal processor coupled to a recognition system, where the sampling system moves vapor laden air into the sensor array. It could even work similar to a passive smoke detector.
The advances in genetics, brain research, artificial intelligence, bionics and nanotechnology are converging to accomplish the goal of overcoming human limitations and create higher forms of artificial intelligent life. By 2035, the robotics industry could rival the automobile and computer industries in both sales and jobs.
The controller is built inside the mechanism eliminating the need for external controller cabinets or external harnessing. This reduces floor space requirements and cost. The only external cabling necessary is a standard AC power cord, reducing the cost of cable management.
Coupled with computers and software, plenoptic cameras can enable a robot to better navigate its environment with less confusion and work autonomously. Robotic sensors, using light filed technology, match up to the human sense of sight, serving as a robot's eyes, allowing the robot to get around in its surroundings.
The small nanobots that are being deployed to fight cancer are nothing like what we imagine. Instead of being made of metal, plastic, and circuitry, cancer nanobots are created using "DNA origami," or "folding" DNA chains to form a barrel-shaped container for a payload of cancer antibodies.
Clamping applications often rely on sensors to detect whether the jaws or grippers are in the proper position - open or closed. Though other technologies can be used in place of sensors to determine the open/closed conditions, sensor implementation can increase reliability and obtain data that only a detection device very near the application can provide.
Designed to be thrown up to 120 feet, the Throwbot could also move quietly throughout a structure and send back real-time video that revealed the layout of rooms, the location of barricaded subjects and the condition of hostages.
Bill Zurn was inspired to develop a road repair machine patent after being frustrated by all of the potholes on the freeways & city streets. He postulated that a more efficient method of repairing roads was possible by adding robotic modules and computer controlling methods to repair machines.
Parallel-link robot deployments will continue to see strong growth as more and more operations across all industries embrace automation as a way to cut costs and stay completive. When light payloads and very fast cycle times are required, whether it be assembly, picking, dispensing, or any number of other applications, parallel-link robots will continue to meet the challenge.
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Zaber's X-LRQ-DE Series of linear stages have high stiffness, load, and lifetime capabilities in a compact size. The integrated linear encoder combined with stage calibration provides high accuracy positioning over the full travel of the device. At 36 mm high, these stages are excellent for applications where a low profile is required. The X-LRQ-DE's innovative design allows speeds up to 205 mm/s and loads up to 100 kg. Like all Zaber products, the X-LRQ-DE Series is designed for easy set-up and operation.