Miniature hydro-power generation system
A miniature hydro-power generation system includes an outer housing and an inner housing. The outer housing may receive a flow of liquid flowing in a first direction at a predetermined range of pressure. The flow of liquid may be decreased by a predetermined amount of pressure and increased by a predetermined amount of velocity and channeled to a hydro-generator included in the inner housing with an inlet nozzle. The flow of liquid may be channeled with the inlet nozzle to flow in a second direction that is substantially perpendicular to the first direction. Upon transfer of kinetic energy in the flow of liquid to the hydro-generator, the inner housing may rotate in the second direction. The flow of liquid may then be channeled back to the first direction and out of the housing with an outlet nozzle. The outlet nozzle configured to increase the pressure and decrease the velocity of the flow of liquid to minimized non-laminar flow characteristics.
1. A method of channeling a flow of liquid in a miniature hydro-power generation system, the method comprising:
providing a generator comprising a stator that includes a coil, a rotor that includes a permanent magnet, and a plurality of vanes;
receiving a flow of liquid flowing in a first direction;
increasing a velocity and decreasing a pressure of the flow of liquid;
directing the flow of liquid to impact with the plurality of vanes;
changing the flow of liquid from the first direction to a second direction upon impact with the plurality of vanes, the second direction always substantially perpendicular to the first direction;
rotating the generator in the second direction within the flow of liquid to produce an electric current in the coil;
changing the flow of liquid from the second direction back to the first direction; and
decreasing the velocity and increasing the pressure of the flow of liquid.
2. The method of claim 1 , wherein receiving a flow of liquid flowing in a first direction comprises receiving the flow of liquid that flows substantially in parallel with a central axis around which the generator axially rotates.
3. The method of claim 1 , wherein rotating the generator in the second direction within the flow of liquid comprises channeling the liquid to flow around an outer surface of the generator at substantially the same velocity that the generator is rotated.
4. The method of claim 1 , wherein decreasing the velocity and increasing the pressure of the flow of liquid comprises decreasing the velocity to be substantially equal to a velocity of the flow of liquid received in the first direction and channeling the flow of liquid to have a laminar flow that is substantially parallel with the first direction.