Savonius Rotor & Cylinder CFD
Budget: ₹1,500 – ₹12,500 INR
I have two wind-energy geometries that must be completely set up and solved in ANSYS 2024 R1:
• Model 1 – a simple cylinder, D = 1 m, H = 1 m (STP file available).
• Model 2 – three-bladed Savonius rotor, D = 1 m, H = 1 m, 5 mm shaft (no STP yet).
Starting in Ansys DesignModeler, create or import the parts, build a high-quality tetrahedral mesh with good orthogonal quality, then carry the case into Fluent. 7 m/s inlet velocity is the only boundary condition; the outlet can be left as default pressure. The k-omega SST turbulence model is mandatory.
For each model at TSR = 0.6 I need:
1. A single .wbpj project that already contains the geometry, mesh, setup and solution.
2. Pressure- and velocity-contour images for azimuthal positions 0°, 45°, 90°, 135°, 180° and 225° (top view).
3. Streamline plots viewed along the y-axis.
Save the views clearly and label the files so I can reproduce them if needed. Once the above items load and run without warnings in my own ANSYS 2024 R1 installation, I will consider the job complete.
• Model 1 – a simple cylinder, D = 1 m, H = 1 m (STP file available).
• Model 2 – three-bladed Savonius rotor, D = 1 m, H = 1 m, 5 mm shaft (no STP yet).
Starting in Ansys DesignModeler, create or import the parts, build a high-quality tetrahedral mesh with good orthogonal quality, then carry the case into Fluent. 7 m/s inlet velocity is the only boundary condition; the outlet can be left as default pressure. The k-omega SST turbulence model is mandatory.
For each model at TSR = 0.6 I need:
1. A single .wbpj project that already contains the geometry, mesh, setup and solution.
2. Pressure- and velocity-contour images for azimuthal positions 0°, 45°, 90°, 135°, 180° and 225° (top view).
3. Streamline plots viewed along the y-axis.
Save the views clearly and label the files so I can reproduce them if needed. Once the above items load and run without warnings in my own ANSYS 2024 R1 installation, I will consider the job complete.