Robot for solar farms
The solar energy and solar farms are used to generate energy and reduce dependence on oil (or for environmental purposes). The maintenance, operation, optimization, and repairs in big farms become very difficult, expensive, and inefficient, using human technicians. Thus, here, we teach using the robots with various functions and components, in various settings, for various purposes, to improve operations in big (or hard-to-access) farms, to automate, save money, reduce human mistakes, increase efficiency, or scale the solutions to very large scales or areas.
1. A method of adjusting solar panels in a solar farm using a robot, said method comprising:
said robot moving on one or more rail or track systems in said solar farm; wherein said robot comprises an arm and a trunk;
wherein said arm is connected to said trunk;
wherein a wrench or tool is attached to said arm;
wherein said robot comprises one or more motors;
a processor detecting that said robot is in front of a first solar panel;
a controller stopping said robot when said robot is in front of said first solar panel;
said robot extending said wrench or tool using said one or more motors;
said wrench or tool engaging said first solar panel at one or more panel adjustment devices;
said one or more panel adjustment devices changing position or tilt of said first solar panel with respect to one or more angles, axes, or angular or Cartesian coordinate systems;
said processor tracking the sun, based on an optimization module;
said controller sending a command to said robot, based on said optimization module;
said robot adjusting said position or tilt of said first solar panel, using said wrench or tool on said one or more panel adjustment devices;
said robot retracting said wrench or tool using said one or more motors;
said robot moving to a second solar panel, on said one or more rail or track systems in said solar farm.
2. A method of adjusting solar panels in a solar farm using a robot, said method comprising:
said robot moving on one or more rail or track systems in said solar farm;
wherein said robot comprises a trunk;
wherein a wrench or tool is attached to said trunk;
wherein said robot comprises one or more motors;
a processor detecting that said robot is in front of a first solar panel;
a controller stopping said robot when said robot is in front of said first solar panel;
said robot extending said wrench or tool using said one or more motors;
said wrench or tool engaging said first solar panel at one or more panel adjustment devices;
said one or more panel adjustment devices changing position or tilt of said first solar panel with respect to one or more angles, axes, or angular or Cartesian coordinate systems; said processor tracking the sun, based on an optimization module;
said controller sending a command to said robot, based on said optimization module;
said robot adjusting said position or tilt of said first solar panel, using said wrench or tool on said one or more panel adjustment devices;
said robot retracting said wrench or tool using said one or more motors;
said robot moving to a second solar panel, on said one or more rail or track systems in said solar farm.
3. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , wherein said robot comprises one or more of following: a flat bed, lifter, pusher, camera, light source, vacuum cleaner, cable, wire, antenna, pipe, conduit, lens, mirror, bag, container, gear box, gear, spare parts container, valve control, mixing unit, pump, cover, cylinder, gas tank, water supply, liquid supply, water or liquid or recycle waste container, battery, charger, outlet, recycling or garbage bin, overflow sensor, and water or liquid recycle or waste tray.
4. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , said method comprises:
communicating with said processor wirelessly.
5. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , said method comprises:
communicating with said processor by wire or cable.
6. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , said method comprises:
communicating with said controller wirelessly.
7. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , said method comprises:
communicating with said controller by wire or cable.
8. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , said method comprises:
using a second wrench or tool for adjusting said position or tilt of said first solar panel.
9. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , said method comprises:
getting power from a battery, solar panel, rechargeable battery, cable, or power outlet.
10. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , said method comprises:
using a charging station along said one or more rails or tracks system in said solar farm.
11. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , wherein said robot comprises one or more of following: a brush, broom, sweeper, wiper, nozzle, light source, camera, probe, plug, mechanical grip, magnetic grip, vacuum suction grip, vacuum cleaner head, screw driver, soldering device, welding device, oil dispenser, finger, gripper, grip tool, clamp, hook, or tool holder.
12. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , wherein said robot comprises one or more telescopic arms.
13. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , wherein said robot comprises one or more of following: a crank axel, lift, jack, axial joint, spherical joint, ball joint, coupler, lift support, motor, screw-type lifting device, wrench driver, spherical hinge, or hinge.
14. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , wherein said first solar panel is a flat panel.
15. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , wherein said first solar panel is a curved surface.
16. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , said method comprises:
using a marker to locate position of said robot on said one or more rails or tracks system in said solar farm.
17. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , said method comprises:
using a global positioning system to locate position of said robot on said one or more rails or tracks system in said solar farm.
18. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , said method comprises:
using a second robot on said one or more rails or tracks system in said solar farm.
19. The method of adjusting solar panels in a solar farm using a robot, as recited in claim 2 , wherein said first solar panel does not have any motor.
20. A robot operating in a solar farm, said robot comprising:
an arm;
a trunk;
wherein said arm is connected to said trunk;
a wrench;
wherein said wrench is attached to said arm;
wherein said robot is positioned on one or more rail or track systems in said solar farm;
one or more motors;
wherein said robot extends or retracts said wrench using said one or more motors;
wherein said robot is positioned in front of a solar panel;
wherein, said robot extends said wrench which engages said solar panel at one or more panel adjustment devices;
wherein said one or more panel adjustment devices changes position or tilt of said solar panel with respect to one or more angles, axes, or angular or Cartesian coordinate systems;
wherein a controller sends a command to said robot to adjust said position or tilt of said solar panel, based on an optimization module for tracking the sun, using said wrench to engage said solar panel at said one or more panel adjustment devices.