Unleashing Powerful Energy: Low Head High Flow Micro Hydro!
Table of Contents
- Introduction
- Bill's Setup: A Different Approach
- The Intake and Pipe System
- Creating the Siphon with a Shop Vac
- The Power Generation Unit
- Preventing Vortex and Maintaining Efficiency
- Managing the Water Flow
- Transmitting Power to the House
- Using an Inverter to Convert Power
- The Cost and Payback Period
- Conclusion
Bill's Setup: A Different Approach
In this article, we will explore Bill's unique setup for generating power using a turbine. Bill's setup is different from the traditional setups as he doesn't have the head pressure but relies on a high flow rate. We will walk through his setup step by step, starting from the intake and pipe system to the power generation unit. Along the way, we will discuss the challenges he faced and the solutions he implemented to ensure efficient power generation. Lastly, we will also evaluate the cost and payback period of this setup. So, let's dive in and discover the innovative techniques Bill has employed to generate power with his turbine.
1. Introduction
Renewable energy sources have gained significant popularity in recent years due to the increasing concerns about environmental sustainability and the rising costs of traditional energy sources. Among these renewable options, harnessing the power of moving water through turbines has proven to be a viable and efficient method. In this article, we will explore Bill's unique setup for generating power using a turbine and examine the various components involved in his system.
2. Bill's Setup: A Different Approach
Bill's setup is distinct from the conventional turbine setups, which primarily rely on head pressure. Instead, Bill's setup focuses on a high flow rate to generate power. He has installed a turbine from Spencer, which is Langston Alternative Power, in Western North Carolina. In comparison to other setups, Bill's turbine setup is significantly different due to the absence of head pressure.
3. The Intake and Pipe System
The heart of Bill's setup lies in the intake and pipe system. Located next to a pond, the setup utilizes a dam that drops approximately eight feet from a specific point. The intake of the unit is equipped with a screen cage to prevent debris from entering the pipe. The six-inch pipe extends into the water, with a 90-degree elbow directing the flow towards the turbine. Bill has utilized a combination of six-inch and eight-inch pipes to create a vacuum effect and maximize power generation.
4. Creating the Siphon with a Shop Vac
To facilitate the movement of water from the top of the dam into the pipe, a siphon must be created. Bill has found an innovative solution by utilizing a shop vac to create a negative pressure. This simple yet effective method allows water to be pulled over the dam effortlessly. By turning on the shop vac, Bill is able to initiate the siphon and start the turbine within seconds.
5. The Power Generation Unit
Bill's turbine setup utilizes a three-phase AC unit provided by Spencer. The AC power is delivered to a jointer box connected to the three wires, along with a 10-2 wire used for grounding. This setup ensures a smooth transfer of three-phase power to his house. The turbine's impressive suction capability allows for the extraction of a significant amount of water, enhancing overall power generation.
6. Preventing Vortex and Maintaining Efficiency
One of the challenges in turbine setups is the creation of vortexes, which can reduce efficiency. To address this issue, Bill has introduced a vortex destroyer, which prevents the formation and buildup of vortexes. By placing a tennis ball inside the pipe, the vortex destroyer spins with the vortex and disrupts its formation. This ingenious solution ensures optimal efficiency and prevents any drops in power generation.
7. Managing the Water Flow
The intake and pipe system in Bill's setup enable him to control the water flow effectively. The turbine consumes most of the water from the creek, leaving just enough overflow. However, during periods of reduced water flow, such as in the middle of summer, the setup can consume all the water in the creek. Bill must carefully monitor the water levels to avoid draining the lake completely.
8. Transmitting Power to the House
A crucial aspect of any turbine setup is transmitting the generated power to the house. The wire run from the turbine to Bill's house spans 100 feet, with minimal power loss due to the use of AC electricity. The setup includes an inverter that converts the DC power generated by the turbine to AC power compatible with the household electrical system. This inverter seamlessly integrates the power generated by the turbine into the existing electrical grid.
9. Using an Inverter to Convert Power
The inverter plays a vital role in converting the power generated by the turbine. Bill's inverter transforms the 24 volts DC power into an impressive output of 528 watts. This converted power is then directly fed into one phase of his panel. The setup also includes a sensor wire that detects power requirements and prevents any power backflow, ensuring safety and efficiency.
10. The Cost and Payback Period
Like any renewable energy setup, Bill's turbine setup involves an initial investment. The turbine, inverter, and the necessary components cost approximately $2500. Additional plumbing components added another $500 to the overall cost. The planning stage, which involved months of calculations and research, was invaluable but difficult to quantify. Considering a reduced monthly electricity bill of $40 to $45, the payback period for this setup is estimated to be around five to six years.
11. Conclusion
Bill's setup showcases an innovative and unique approach to power generation using a turbine. By harnessing the high flow rate instead of relying on head pressure, Bill has successfully created a cost-effective and efficient system. The combination of a well-designed intake and pipe system, the use of a shop vac for siphoning, and strategic measures to prevent vortexes have resulted in a reliable source of renewable energy. With a reasonable payback period and reduced reliance on traditional energy sources, setups like Bill's demonstrate the potential of hydropower in sustainable energy generation.