Modular angular-momentum driven magnetically connected robots
A modular robotic system that includes a plurality of self-configuring robots. Each self-configuring robot includes a frame structure having a plurality of cylindrical bonding magnets positioned along the edges of the frame structure. The frame structure includes magnetic, non-gendered, hinges on any of the edges of the frame. The hinges provide enough force to maintain a pivot axis through various motions. The cylindrical bonding magnets are free to rotate allowing for multiple self-configurations with other like self-configuring robots. A movement generator is positioned within the frame structure that pivots to generate multi-axis movement allowing both robust self-reconfiguration with the other self-configuring robots and independent locomotion.
1. A self-configuring robot comprising:
a frame structure that includes a plurality of cylindrical bonding magnets positioned along the edges of the frame structure, the frame structure includes magnetic, non-gendered hinges on any of the edges of the frame, the hinges provide force to maintain a pivot axis through various motions, the cylindrical bonding magnets are free to rotate allowing for multiple self-configurations with another modular structure having magnetic properties; and
an actuator that is positioned within the frame structure, the actuator includes a belt and a flywheel structure where the actuator is used to tighten the belt that rapidly decelerates the flywheel to create an impulse of torque generating multi-axis movement allowing both robust self-reconfiguration with said other modular structure and independent locomotion, wherein a goal location is defined such that when the actuator is aligned with the goal location, the actuator is used to apply a of torque that causes controlled rotation about a magnetic hinge toward the goal location on a lattice, otherwise the actuator is stochastically reoriented using a torque that causes rotation of the actuator about the pivot axis of the frame structure so as to align the actuator to the goal location, wherein when the actuator shares a same pivot axis with actuators of a plurality of other self-configuring robots, the actuator and the actuators of the plurality of other self-configuring robots coordinate moving together.
2. The self-configuring robot of claim 1 , wherein the cylindrical bonding magnets are diametrically polarized.
3. The self-configuring robot of claim 1 , wherein the multi-axis movement comprises moving independently in traverse planar unstructured environments.
4. The self-configuring robot of claim 1 , wherein the multi-axis movement comprises sliding using pivoting action.
5. The self-configuring robot of claim 1 further comprising a plurality of alignment magnets arranged to maintain gender neutrality.
6. The self-configuring robot of claim 5 , wherein the alignment magnets comprise diameter disc magnets that are embedded in each faces of said frame structure.
7. The self-configuring robot of claim 1 , wherein the multi-axis movement comprises movements in 2D or 3D.
8. A modular robotic system comprising:
a plurality of self-configuring robots, each comprising a frame structure that includes a plurality of cylindrical bonding magnets positioned along the edges of the frame structure, the frame structure includes magnetic, non-gendered hinges on any of the edges of the frame, the hinges provide force to maintain a pivot axis through various motions, the cylindrical bonding magnets are free to rotate allowing for multiple self-configurations with other self-configuring robots; and a movement generator positioned within the frame structure that pivots to generate multi-axis movement allowing both robust self-reconfiguration with said other self-configuring robots and independent locomotion, wherein a goal location is defined such that when the actuator is aligned with the goal location, the actuator is used to apply a torque that causes controlled rotation about a magnetic hinge toward the goal location on a lattice, otherwise the actuator is stochastically reoriented using a torque that causes rotation of the actuator about the pivot axis of the frame structure so as to align the actuator to the goal location, wherein the self-configuring robots move to form a lattice structure of self-configuring robots, when a group of the self-configuring robots share a same pivot axis, the group of the self-configuring robots coordinate their respective actuators in order to move together.
9. The modular robotic system of claim 8 , wherein the cylindrical bonding magnets are diametrically polarized.
10. The modular robotic system of claim 8 , wherein the movement comprises moving independently in traverse planar unstructured environments.
11. The modular robotic system of claim 8 , wherein the movement comprises sliding using pivoting action.
12. The modular robotic system of claim 8 further comprising a plurality of alignment magnets arranged to maintain gender neutrality.
13. The self-configuring robot of claim 12 , wherein the alignment magnets comprise diameter disc magnets that are embedded in each face the frame structure.
14. The modular robotic system of claim 8 , wherein each said self-configuring robot performs pivoting motions by selecting a volume of space that must not intersect other self-configuring robots.
15. The modular robotic system of claim 8 , wherein each self-configuring robot executes a range of motions including concave transitions, convex transitions, and translations.
16. The modular robotic system of claim 8 , wherein the self-configuring robots move to coalesce at a centralized point and then proceed to form an arbitrary structure of self-configuring robots.
17. The modular robotic system of claim 8 , wherein the multi-axis movement comprises movements in 2D or 3D.