Abstract
The project aims to develop a low-cost horizontal axis wind
turbine that will reduce energy costs and reduce reliance on
non-renewable resources for power generation. There are many types of
commercially available wind turbine designs are present currently but
they require sophisticated manufacturing using composite materials that
makes it very complex hence they are very costly. Our aim is to suggest a
suitable alternate to this that can cater the needs of small-scale wind
turbine design having a simple and cost-effective design. For this, PVC
was chosen as a material because it is readily available, inexpensive,
and lightweight, allowing it to deliver more power. Our main focus was
to study the feasibility of this design and have a comparison with the
current industrial 3D blade designs. CFD analysis on the proposed design was conducted including parametric studies on PVC, as well as structural and modal analysis
for blades with appropriate power coefficients and it is compared with
the industrial 3D wind turbine blades. The analysis is carried out in
such a way that the pressure distribution obtained from the CFD analysis
is imported into structural analysis and used as a load boundary
condition. The total deformation and equivalent stress on the blade are
calculated for a design which was giving the highest efficiency from the
parametric studies.
Original language | English |
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Journal | Materials Today: Proceedings |
Volume | 52 |
Issue number | 4 |
Pages (from-to) | 2238-2254 |
ISSN | 2214-7853 |
DOIs | |
Publication status | Published - 2022 |
Keywords
- HAWT
- Wind turbine
- CFD analysis
- FEM analysis
- PVC
- Small-scale wind turbine