This innovative aquatic device stands out for its versatile movement, as it can switch between different locomotion patterns depending on mission requirements. For instance, in "jellyfish mode," the robot moves its four limbs simultaneously with elastic strokes to achieve a stable vertical ascent; in "fish mode," it uses one of its arms as a rudder to turn laterally; and by activating its channels sequentially with a time offset, it enters a "rotor mode" that allows it to spin on its own axis while continuously gaining altitude.

Beyond its fluid, three-dimensional maneuverability, the prototype has demonstrated significant practical potential for underwater cleaning and maintenance tasks. Equipped with a small magnetic patch or hooks on its underside, the automaton can efficiently collect metallic debris—such as rusted screws—or handle plastic containers from the seabed in a matter of seconds. Furthermore, it is capable of working collaboratively with other robots in a swarm to lift heavier loads, opening the door to future applications in ocean preservation.

The technology is still in the development phase, and engineers plan to create a fully wireless version in the future. This type of robot could facilitate the inspection of submerged environments, environmental monitoring, and operations that require compact machines capable of performing highly precise maneuvers. Most interestingly, the major breakthrough in this case did not come from adding more motors or complex computers, but rather from an intelligent mechanical structure capable of achieving much more with less.