Compact Transformable Robot
The invention pertains to the development of a unique and small transformable robot that will fit into very small pipes, openings, or packing tubes, thereby enabling complex missions and also which can fly and drive. Other advantages of the system include portability, weight, perch, and stare capabilities. The present invention comprises a compact transformable robot capable of flying and driving designed to furl or fit into small openings, containers, packing tubes, or pipes containing a thrust, a main body, controls, and rotating propellers. The compact transformable robot capable of flying and driving that is designed to furl or fit into small openings, containers, or pipes comprises a ground locomotion, an aerial locomotion, controls, sensors, and a radio.
1 . A compact transformable robot capable of flying and driving designed to furl or fit into 8-inch openings, containers or pipes comprising:
ground locomotion;
aerial locomotion;
controls;
sensors; and
radio.
2 . The compact transformable robot of claim 1 further comprising being designed to furl or unfurl or fit into cylindrical containers or pipes.
3 . The compact transformable robot of claim 1 further comprising being designed to fit into pipes, openings, or packing tubes.
4 . The compact transformable robot of claim 1 wherein the robot can fly over the wall, land at the center of the compound, and look for improvised explosive devices (IEDs).
5 . The compact transformable robot of claim 1 wherein the robot can be flown and perched on a roof.
6 . The compact transformable robot of claim 1 wherein the robot can inspect windows and land inside, or on the roof and employ sensors to collect and pass on vital information.
7 . The compact transformable robot of claim 1 wherein the robot uses its propellers if it gets stuck and can change ground pressure or the ground locomotion mechanism (light or heavy).
8 . The compact transformable robot of claim 1 wherein in its ground modality, is significantly quieter than flying UAVs.
9 . The compact transformable robot of claim 1 wherein optical-flow algorithms are utilized for GPS-denied localization which selects features in the images to track and compute the relative distance travelled by the platform between the frames.
10 . The compact transformable robot of claim 1 wherein anchor nodes have been developed for navigational aids with a low-cost IMU and a ranging radio.
11 . The compact transformable robot of claim 1 wherein the robot can teleoperate with long communication delays.
12 . The compact transformable robot of claim 1 wherein the unfurling process will self-right the vehicle.
13 . The compact transformable robot of claim 1 wherein the rubber tracks fully encompass the vehicle in the stowed position and protect the propellers, body, and payloads from a fall.