After underwater research, underwater robots typically exhibit signs of wear and tear due to exposure to harsh environmental conditions such as pressure, temperature variations, and corrosive saltwater. They may accumulate biofouling, which is the growth of marine organisms on their surfaces, potentially affecting their performance. Additionally, seals and joints might show signs of fatigue or leakage, necessitating maintenance and repairs. Regular inspections and cleaning are essential to ensure their functionality for future missions.
The vast majority of robots use no AI. In general AI in robots is still limited to mostly robotics research.
Underwater robots work similarly to robots that run on land, however the wiring and hardware are generally kept in a different location and heavily reinforced with waterproof seals.
A Biomimetic Autonomous Underwater Vehicle (BAUV) designed to mimic the swimming motion of a penguin is called a penguin robot. These robots are inspired by the streamlined body shape and unique wing-like flippers of penguins to improve underwater agility and maneuverability. They are used for various research purposes such as studying marine ecosystems and improving underwater vehicle performance.
Robots can be subjected to much higher pressures than the human body can, and space and under the sea are the 2 most pressurised environments we know about. So robots do these jobs for us, so we dont risk exploding (very messy!) in these exreme environments.
Lots of ways:Drones are form of robotics.There are special robots used to disarm bombsThere are used to investigate thing underwater and in dangerous situationsSome are equipped to fight fires in spaces on ships and around aircraft.
The United States currently makes several "flying robots". Research "UAV".
Yes. That is a typical use of robots. A robot can go in a place that's too difficult for a person to reach or that is too dangerous. Cameras tell the operator what's going on.
WaterAn increasing number of hobbyists, institutions and companies are developing unmanned underwater vehicles. There are many obstacles yet to overcome to make underwater robots attractive to the wider robotic community though in recent years, several companies have commercialized pool cleaning "robots". Underwater vehicles can use ballast (compressed air and flooded compartments), thrusters, tail and fins or even wings to submerge. Other aquatic robots such as pool cleaners are useful commercial products.AdvantagesMost of our planet is water, so there is a lot to explore and discoverDesign is almost guaranteed to be uniqueCan be used and/or tested in a poolDisadvantagesRobot can be lost many ways (sinking, leaking, entangled…)Most electronic parts do not like water (also consider water falling on electronics when accessing the robot after a dive)Surpassing depths of 10m or more can require significant research and investmentVery limited robotic community to provide helpLimited wireless communication options
Atlantis The Underwater City
With proper brainstorming and design, today's robots are capable of doing almost anything. I've seen robots perform a submarine crew rescue simulation underwater, scout an area for danger, and help nurses care for the elderly in nursing homes. This is by no means all they can do though as the constant developments of the field may suggest! Robots such as RoboFisher may catch fish on a real lake and you just stay home and control it from your mobile device or computer.
There are humanoid robots, military robots, insect robots, and space robots. There are more kinds of robots too.
A person who creates robots is called a roboticist. Roboticists design, build, and program robots, often combining expertise in engineering, computer science, and artificial intelligence. They work in various fields, including manufacturing, healthcare, and research, to develop robotic systems that can perform specific tasks or functions.