Robotic apparatus, method, and applications
A robotic vacuum cleaner equipped with a holonomic drive that can drive in a given direction, e.g., north (with its assigned orientation being north) and move in a different direction, e.g., east, north-east, or any direction) while maintaining its assigned orientation or that of any desired portion of the robot such as an intake, bank of sensors, or any other portion of the robot that is needed for a particular maneuver.
1. A robotic vacuum cleaner, comprising:
a. a main body having a front, top and bottom;
b. a vacuum source positioned at the front of the main body;
c. a plurality of sensor elements mounted to the main body, the plurality of sensor elements comprising a LIDAR mounted atop the robotic vacuum cleaner;
d. a first pair of diagonally opposed wheel assemblies and a second pair of diagonally opposed wheel assemblies that collectively form a holonomic drive, wherein the wheels are offset by 90 degrees relative to each other, each wheel assembly comprising:
i. a motor;
ii. a drive wheel connected to the motor;
iii. an encoder;
iv. and a motor controller; and
e. a main controller that receives odometry data from the motor controller corresponding to to the movement of the wheel, and data from the plurality of sensors, and provides electronic navigation control to the wheel assemblies based on the received odometry data and the data from the plurality of sensors;
f. wherein the robotic vacuum cleaner is configured such that it can drive in a given direction and move in a different direction, while maintaining an assigned orientation.
2. The robotic vacuum cleaner of claim 1 , wherein each of the wheel assemblies further comprises a motor pod into which the motor fits.
3. The robotic vacuum cleaner of claim 2 , wherein each of the wheel assemblies further comprises a slotted motor hub that transmits torque to the drive wheel.
4. The robotic vacuum cleaner of claim 3 , wherein each of the wheel assemblies further comprises a snap clip that attaches the motor hub to the drive wheel.
5. The robotic vacuum cleaner of claim 1 , wherein each motor controller independently controls a respective one of the motors to operably form a holonomic drive.
6. A robotic vacuum cleaner, comprising:
a. a main body having a front, top and bottom;
b. a vacuum source positioned at the front of the main body;
c. a plurality of sensor elements mounted to the main body, the plurality of sensor elements comprising a LIDAR mounted atop the robotic vacuum cleaner;
d. a first pair of diagonally opposed wheel assemblies and a second pair of diagonally opposed wheel assemblies that collectively form a holonomic drive, wherein each pair of diagonally opposed wheels have a colinear axis, each wheel assembly comprising:
i. a motor;
ii. a drive wheel connected to the motor;
iii. an encoder;
iv. and a motor controller; and
e. a main controller that receives odometry data from the motor controller corresponding to the movement of the wheel, and data from the plurality of sensors, and provides electronic navigation control to the wheel assemblies based on the received odometry data and the data from the plurality of sensors;
f. wherein the robotic vacuum cleaner is configured such that it can drive in a given direction and move in a different direction, while maintaining an assigned orientation.
7. The robotic vacuum cleaner of claim 6 , wherein each of the wheel assemblies further comprises a motor pod into which the motor fits.
8. The robotic vacuum cleaner of claim 7 , wherein each of the wheel assemblies further comprises a slotted motor hub that transmits torque to the drive wheel.
9. The robotic vacuum cleaner of claim 8 , wherein each of the wheel assemblies further comprises a snap clip that attaches the motor hub to the drive wheel.
10. The robotic vacuum cleaner of claim 9 , wherein each motor controller independently controls a respective one of the motors to operably form a holonomic drive.
11. A robotic vacuum cleaner, comprising:
a. a main body having a front, top and bottom;
b. a vacuum source positioned at the front of the main body;
c. a plurality of sensor elements mounted to the main body, the plurality of sensor elements comprising a LIDAR mounted atop the robotic vacuum cleaner;
d. a first pair of diagonally opposed wheel assemblies and a second pair of diagonally opposed wheel assemblies that collectively form a holonomic drive, each wheel assembly comprising:
i. a motor;
ii. a drive wheel connected to the motor;
iii. an encoder;
iv. and a motor controller; and
e. a main controller that receives odometry data from the motor controller corresponding to the movement of the wheel, and data from the plurality of sensors, and provides electronic navigation control to the wheel assemblies based on the received odometry data and the data from the plurality of sensors;
f. wherein the robotic vacuum cleaner is configured such that it can drive in a given direction and move in a different direction, while maintaining an assigned orientation.
12. The robotic vacuum cleaner of claim 11 , wherein each of the wheel assemblies further comprises a motor pod into which the motor fits.
13. The robotic vacuum cleaner of claim 12 , wherein each of the wheel assemblies further comprises a slotted motor hub that transmits torque to the drive wheel.
14. The robotic vacuum cleaner of claim 13 , wherein each of the wheel assemblies further comprises a snap clip that attaches the motor hub to the drive wheel.
15. The robotic vacuum cleaner of claim 11 , wherein each motor controller independently controls a respective one of the motors to operably form a holonomic drive.