There are 2 billion people in the world live without access to Infrastructure, connectivity in developing regions is growing at an exponential rate. We are working to get internet and light to the rural areas of India and Sub-saharan Africa. Health, safety, and economic opportunity for the worlds poorest communities can be in the near furture with Solight's products. We are ensuring the health of our families and the health of the planet by empowering people with self-charging products that give power and freedom to the people.

The biggest problem to new urban infrastructure takes 4-6 billion to implement and years to execute, but with our self charging drone, lighting and connectivity can be accessed for a fraction of the cost of conventional urban lighting and wifi towers. Most towers and light posts cost between 50K-100K for the structure alone, with our Drone100 hubs we can implement lighting and connectivity in half the time, and half the cost.

The issue of battery life is the most challenging part of Drone use. System and Method of prolonged energy harnessing for our Drone harnesses solar, kenetic loop, and magnetic vibration turbine, to harness additional energy to power the battery for extended longevity of power.

Solar and kinetic energy harnessing of Unmanned Arial vehicle with facial recognition for surveillance and

Our system and method relates to a series of solar panels (ref.#1) and miniature vibration turbine(#4) to harness additional energy to power rechargeable battery (#2) and LEDs _(#5)_or OLEDs and Wifi hub _(#12) -attached to unmanned flying vehicle 100 using a rechargeable battery (#2). Additional charging capability for self sustained flight to hover by harnessing electric energy by –Zero energy rotational Loop turbine propeller (#3) ,vibration turbine (#4), solar panels (#1) into mechanical energy. Light from the drone 100 will be lighting road ways, streets, landscape, parking lots, and military bases. Application of control will be for remote operation from a remote device 300 and will allow the UAV 100 to hover in the air. Additionally a Wifi hub (#12)__ will be connected to and EMBEDDED IN DRONE100 for connectivity in rural areas, where infrastructure is not available)

Solar cell PV-Photovoltaic panel (#1) is arranged on the upper surface of UAV body _(Drone100); a direction adjusting base stabilizing armature (#13) is arranged under PV panel (#1); a photometric sensor (#17)_ is arranged at the front end __ of a control circuit (#10)_ is arranged inside the UAV 100; a photoelectric conversion component (#16) is arranged on the circuit (#19)_with sensor _(#17), rotator positive and negative energy propeller (#3) __ and kinetic and vibration energy turbine(#4) mechanically connected to the battery(#2). The miniature vibration and kinetic energy turbine harnesses kinetic energy from the vibration of the in thin film tape connected at both sides with a magnet, vibration and movement of the magnet along the inside of copper housing _(#15) is attached to the underside of the UAV 100 where the legs are attached (figure 8) and electrically connected to the rechargeable battery (#2) A sensor (#17)_ can sense electric positive coming from the vibration turbine for additional energy harnessing Kinetic energy can be harnessed from the positive and negative energy propeller. _(#3)of the UAV 100. Function of the drone will be to move in one direction on the z axis for hovering and movement adjustments to counter balance wind direction., this will replace light poles, Wi-Fi towers and steel and concrete infrastructure. Kinetic energy Loop mechanically accelerated with a flywheel support and is rotated by an AC Motor (propeller) which is specially coordinated and interconnected through his own rotational loop. The prime mover (AC Motor) is wired to self-loop back in order to keep it running, while the generator keeps producing equal energy that it consumes, to keep the prime mover rotated, thereby giving NON-STOP ENERGY 24 hours a day, years at a time.

Fig. 1 shows drone 100 hovering over a street with an embedded dock 200. Fig. 2 shows a side view of drone 100. Fig. 3 shows a top down view of processing structure 11. (WHERE IS STRUCTURE 11 IN FIG. 2/4/5?) Fig. 4 shows a side view of drone 100. (HOW IS THE DIFFERENT FROM FIG. 2?) Fig. 5 shows a top down view of drone 100. Fig. 6 (to-be-done) is a flowchart showing operation of drone 100. Movement will adjust in inclement weather of wind speeds over 100mph Fig. 7 (to-be-done) is a flowchart showing operation of drone controller 300.

A list of advantages of the present Drone 100 project. The drone is optimized for preventing movement in the x and y directions to a diameter of 18’ by the use of level /movement sensor and GPS location adjustments to program will accommodate changes in wind current to adjust and balance location of drone. In times of extreme hurricane of winds more than 100 MPH drones will dock and emit light upward. The drone recharges from kinetic and solar energy. Solar panels will create energy from sunlight and provide additional energy to recharge battery, when drone is in flight.

When used as a street, highway, or exterior wifi-hub light, avoids need for a pole structure. Eliminates need for Electric grid, union labor, steel and concrete. Eliminates theft of solar panels or Wifi-hub due to no structure to climb. No additional reinforcements for security is needed. face recognition and camera allow for surveillance and safety for the surrounding neighborhood. Low cost infrastructure for new cities. For lighting and wifi-connectivity

Alternate Embodiments: different embodiments, e.g., for indoor use, OLEDs instead of LEDs (what kind of OLEDs? Where can they be obtained?). Drone 110 is a variation of drone 100 intended for indoor use. For brevity, only the differences between drones 100 and 110 are described. Specifically, drone 110 has … and does not have GPS, and movement sensors for compensating motor functions for adjusting and adapting to hurricane winds. OLEDS can be illuminating the interior as the solar panels facing the sun at window openings or skylight openings.

Problems that occurred: Documentation on the Ar-2 was pretty scarce and not well maintained. Had to hack in to the drone's OS so we could make changes manually. Difficulty with flight testing and mechanical connections. Tech crunch staff would not let us test our project in the work space. Hacking the drone software was challenging.

Balancing the weight of the solar panels was extremely difficult and took more effort in getting everything to balance and aline with code adjustments from the drone hack.

Testing and monitoring of flight endurance.

Next phase will be in developing energy monitoring along with higher level of efficiency for kinetic-loop propeller and integration of more efficient magnetic vibration turbine alined with additional sensors for for Self-Charging Drone

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