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Kinetic NRG, ACS-A design composite hydro-electric turbine blade

The 1.5-meter composite blade will enable Kinetic NRG’s hydro-electric generator to generate power in Australian channels and streams at flow rates of two meters per second.
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Kinetic NRG's hydro-electric composite wind turbine design

Photo Credit: ACS-A

Renewable energy company Kinetic NRG (Southport, Australia) reports that it collaborated with ACS-A (Melbourne, Australia) to design and manufacture a composite hydro-electric turbine blade for the company’s hydro-kinetic energy generator. According to Kinetic NRG, using composites enabled a cost-effective and lightweight solution when compared with the previous metallic turbine blade design. Further, a new method to manufacture the turbine assembly — a low-cost composite tooling — was designed and fabricated in order to achieve the turbine blade’s complex-shaped geometry.

According to the company, the blade’s sub-components were manufactured and, using a specially designed assembly fixture, were then laminated together producing a single-piece, dimensionally-accurate, complex blade assembly with integrated internal hub for the central drive shaft. Kinetic NRG says finishing of the part included a marine top-coat and rotational balancing of the turbine blade. According to ACS-A, the 1.5-meter composite turbine can generate 30 kilowatts (KW) at flow rates of two meters per second.

The finished product has allowed Kinetic NRG to complete assembly of its hydro-kinetic energy generator prototype for in-water trials. The company adds that its prototype will now present an opportunity in untapped low-head hydro energy to generate power in Australian channels and streams. 

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