With the ability to gather unprecedented data on the impact of underwater equipment used to harvest wave and tidal energy, the Millennium Falcon robot will help researchers explore the oceans future as a renewable energy source.
Weve really become leaders in this space, leveraging 窪蹋勛圖厙 expertise with cabled instrumentation packages like those developed for the Ocean Observatories Initiative. Whats novel here is the serviceability of the system and our ability to rapidly deploy and recover the instruments at low cost, said Andrew Stewart, an ocean engineer at the 窪蹋勛圖厙 Applied Physics Laboratory.
The instrument package can track and measure a number of sights and sounds underwater. It has a stereo camera to collect photos and video, a sonar system, hydrophones to hear marine mammal activity, sensors to gauge water quality and speed, a click detector to listen for whales, dolphins and porpoises, and even a device to detect fish tags. A fiber optic cable connection back to shore allows for real-time monitoring and control, and the device will be powered by a copper wire.
The breadth of sensors and various conditions this instrument can measure is unprecedented, researchers say. The tool also is unique for its ability to attach to most types of underwater infrastructure, ranging from tidal turbines to offshore oil and gas rigs. This allows researchers to easily deploy the instrument far offshore and recover it quickly at a relatively low cost compared with other approaches.
It could be a first step toward a standardized science port for marine energy projects, Polagye said.
Using the Force
One of the researchers behind the Millennium Falcon, Andrew Stewart, is diving deeper into the world of underwater robotics as the ocean engineer at BluHaptics, a 2014 窪蹋勛圖厙 startup. BluHaptics makes operating a remotely operated underwater vehicle (ROV) as easy as playing a video game. Controlling an ROV is difficult, explains Ryan Cox, a senior in electrical engineering and BluHaptics intern. You dont get a sense of depth, so operators bump into things or accidentally break parts off.

The startups algorithms and software provide haptic or force feedback on the joystick-like controller. Operators are guided into the perfect grasp and manipulation of an object, and can rotate the image to view the arms position in relation to other objects. The technology also creates a 3-D representation of the ROVs target objects and their environments, which the operator can view on a monitor or through a virtual reality headset. BluHaptics technology is largely based on the recent Ph.D. dissertation of Dr. Fredrik Ryd矇n, a research associate in the 窪蹋勛圖厙s electrical engineering department.
Bolstered by , BluHaptics is exploring broad applications of the software in underwater tasks, from repairing equipment to cleaning up oil spills. The company was also named to the Puget Sound Business Journals 2014 list of five 窪蹋勛圖厙 startups to watch. Dr. Howard Chizeck, BluHaptics chairman of the board and 窪蹋勛圖厙 professor of electrical engineering, says he is looking forward to the boundless future in store for the young company. Were totally changing the way that people interact with remote robots by giving that crucial sense of touch.