Rotary Equipments Online Courses

Price: $220

This product numerically simulates the Cavitation in a Pelton Turbine using ANSYS Fluent software. We design the 3D model with Design Modeler software. We mesh the model with ANSYS Meshing software. We use the Volume of Fluid (VOF) Multi-Phase Model to define a two-phase flow. We use the Mass Transfer mechanism to define Cavitation. We use the Mesh Motion to define a rotational flow.

Price: $2,999

MR CFD's Rotary Equipment & Turbomachinery CFD Simulation GOLDEN Training Package offers 160+ ANSYS Fluent tutorials on pumps, compressors, turbines (gas, water, wind), fans, mixers, and rotary dryers—ideal for professors, managers, and companies upskilling teams in turbomachinery design. Practical exercises and case studies rooted in real-world +160 pre-simulated Rotary Equipment and Turbomachinery projects. Step-by-step tutorials from geometry creation, meshing, solving, and advanced post-processing. While you obtain the Golden Package, you will receive non-limited 1-year technical support from MR CFD experts. By purchasing this Golden package, you can benefit from our 3-month HPC.

Price: $56

This study presents a CFD analysis of a Savonius VAWT using mesh motion in ANSYS Fluent to examine aerodynamic performance and flow characteristics. The rotor geometry was modeled in DesignModeler and meshed with a non-conformal, unstructured grid containing about 5.5 million cells for accurate flow resolution. A transient, pressure-based solver with the RNG k-ε turbulence model was applied; air was used as the working fluid, with rotating and stationary flow zones defined. The simulation revealed pressure variations, wake formation, and vortex structures around the blades, highlighting key aerodynamic behaviors of the Savonius VAWT.

Price: $150

This report presents a simulation that investigates the thrust generation of a VTOL (Vertical Take-Off and Landing) jet engine operating in vertical mode. The aerodynamic performance and thrust force produced by a rotating fan within a bent pipe configuration were analyzed. The 3D geometry of the bent pipe with fan was created using ANSYS SpaceClaim software. A high-quality unstructured mesh with boundary layer refinement was generated using ANSYS Meshing software. Appropriate turbulence model settings and boundary conditions were applied to correctly simulate the rotating fan dynamics and the resulting thrust force generation.

Price: $28

The fan geometry, consisting of six blades and three zones, was created in DesignModeler and meshed with an unstructured tetrahedral grid of about 3 million elements. Broadband noise sources were applied in ANSYS Fluent to evaluate the acoustic performance and sound power level distribution. The Multiple Reference Frame (MRF) approach was used to model the rotating zone at 3000 RPM under steady-state conditions. Results show high-pressure and velocity regions near the blade tips, leading to stronger acoustic power levels along the fan casing.

Price: $100

The centrifugal pump was modeled in ANSYS with two zones: the stationary casing and the rotating impeller. A triangular mesh with 17,536 cells was generated to discretize the geometry. The impeller was simulated using the Moving Reference Frame (MRF) approach with a rotation speed of 1500 RPM.

Price: $20

This project presents a CFD simulation of a centrifugal pump performed in ANSYS Fluent using the mesh motion approach. The geometry was modeled in SpaceClaim/DesignModeler and discretized into a high-quality tetrahedral mesh (About 2M elements). A pressure-based transient solver with the k–ω SST turbulence model was applied, with water as the working fluid. Results show a clear pressure rise from impeller inlet to outlet, confirming efficient energy transfer by the pump.

Price: $16

This project presents a CFD analysis of a centrifugal pump using ANSYS Fluent. The 3D geometry was modeled in SpaceClaim and meshed with about 2 million tetrahedral elements. The simulation used a steady pressure-based solver with the k-ω SST turbulence model and MRF for rotation at 1500 RPM. Results show a clear velocity increase up to ~300 m/s and a significant pressure rise across the impeller and volute.

Price: $220

This work presents a CFD–DEM simulation of a rotary seed dryer. Hot air flows through the inclined drum at 350 K while the drum rotates at 20 RPM. Seeds are modeled with the Discrete Phase Model (DPM) coupled with evaporation into H₂O vapor. The Discrete Element Method (DEM) accounts for particle–particle and particle–wall collisions, improving realism of seed motion. Contours of H₂O mass fraction reveal zones of strong evaporation, reaching values up to 0.0026. The combined CFD–DPM–DEM approach shows how airflow, fin mixing, and collisions enhance drying efficiency.