Multi Phase Flow CFD GOLDEN Training Course
Price:
$23,058
$5,239
MR CFD's Multiphase Flow CFD Simulation GOLDEN Training Package delivers 280+ ANSYS Fluent tutorials on VOF, Eulerian, Mixture, Wet Steam, and more, ideal for professors, managers, and companies to upskill teams fast. It covers real-world cases, with 1-year expert support and 3 months HPC access backed by 15 years' expertise.
Multi Phase Flow CFD GOLDEN Training Course
Price:
$23,058
$5,239
MR CFD's Multiphase Flow CFD Simulation GOLDEN Training Package delivers 280+ ANSYS Fluent tutorials on VOF, Eulerian, Mixture, Wet Steam, and more, ideal for professors, managers, and companies to upskill teams fast. It covers real-world cases, with 1-year expert support and 3 months HPC access backed by 15 years' expertise.
Price: $480
PBM with CFD Simulation of FeNi Nanoparticle Synthesis is performed using ANSYS Fluent . A Multiphase Eulerian approach is applied with FeNi alloy represented in the secondary phase. Powder precursors (FeCl₂ and NiCl₂) are injected into the domain using the Discrete Phase Model (DPM). The Species Transport Model with finite-rate Arrhenius kinetics is used to simulate the reduction reactions. User-Defined Functions (UDFs) implement nucleation, growth, and agglomeration phenomena for nanoparticle prediction.
Thermal Effects on the Mixing Behavior of Glycerin and Water by ANSYS Fluent
Intermediate, Advanced
Price: $120
In the thermal effects on mixing in pipesCFD study investigates the thermal effect on the mixing of glycerin and water in a Y-shaped pipe using ANSYS Fluent. The geometry is created in ANSYS Design Modeler and meshed in ANSYS Meshing to generate a high-quality computational grid. The Volume of Fluid (VOF) method with an implicit formulation is applied, and the realizable k–epsilon model is used for turbulence modeling. A mass flow inlet of 0.15 kg/s is set for both phases, and simulations are carried out without heat flux and with a 30,000 W heat flux.
Air Bubble Injection in a shell and tube heat exchanger
Intermediate, Advanced
Price: $200
In this project, the heat transfer performance of a shell-and-tube heat exchanger with air bubble injection was simulated using ANSYS Fluent software. Three cases were studied: air injection into the shell, into the tube, and into both sides simultaneously. The geometry was created in SpaceClaim and meshed in ANSYS Meshing, initially generating about 12.6 million tetrahedral elements, later converted to a polyhedral mesh with approximately 2.43 million cells to reduce computational cost. The model was solved using a pressure-based steady solver with gravity effects included. A VOF multiphase model was applied to track air and water phases, while the realizable k-ε turbulence model with standard wall functions was used to capture flow behavior. The energy equation was enabled, and the SIMPLE algorithm with second-order upwind discretization ensured solution accuracy.
Price: $510
In the Laser Cladding project, we simulated the deposition of nickel droplets under an argon gas stream using ANSYS Fluent software. The three-dimensional geometry was created in Design Modeler with a computational domain of 0.05 × 0.01 × 0.025 m. A structured non-conformal mesh was generated in ANSYS Meshing, consisting of approximately 798,400 computational cells with refined regions near the deposition zone. The transient simulation employed the VOF multiphase model, coupled with species transport and energy equations, while turbulence was modeled using the Realizable k-ε model. A User-Defined Function (UDF) implemented the moving Gaussian laser heat source, enabling realistic simulation of droplet injection, spreading, and weld layer formation.
Price: $300
In Laser Processing project, we have simulated the laser-induced selective melting of bi-material particles using ANSYS Fluent software. Three-dimensional modeling was performed using Design Modeler software with a computational domain of 1.0 × 0.5 × 0.4 mm dimensions. The meshing of the model was accomplished using ANSYS Fluent Meshing software, generating approximately 800,000 computational cells with refined regions around the particle bed. The transient simulation employs VOF multiphase model, Solidification and Melting model, and a User-Defined Function (UDF) implementing the moving Gaussian laser heat source with laminar flow characteristics.
Price: $48
This project involves the simulation of a broad-crested weir using ANSYS Fluent to analyze fluid dynamics parameters. The primary goals are to assess the flow rate, drag force, and water level at various sections of the weir and compare these with experimental results. The geometry is created in SpaceClaim and meshed in ANSYS Meshing, resulting in a structured mesh with 1,222,021 elements for improved accuracy. The CFD simulation employs a pressure-based solver and a multiphase VOF model to address the incompressibility of fluids, with air as the primary phase and water as the secondary.
Price: $120
The project involves the numerical simulation of plasma spray coating using Ansys Fluent. Based on the paper, the study analyzes the impact and spread of Titanium Oxide on a surface. The 3D geometry is developed using the Design Modeler software. The meshing process utilizes ANSYS Meshing software, generating a structured mesh with 1,299,934 elements. The simulation utilizes a VOF multiphase model to capture the dynamics of droplet impact and spreading accurately.
Pressure Cooker CFD Simulation by ANSYS Fluent
Beginner, Intermediate
Price: $140
This report presents a simulation which investigates the multiphase flow and mass transfer phenomena within a pressure cooker, focusing on the interactions between liquid water, water vapor, and air. The evaporation rate, pressure build-up, and temperature distribution within the pressure cooker were analyzed over a 30-second period. A high-quality tetrahedron elements mesh was generated using ANSYS Meshing software. Appropriate multiphase settings and boundary conditions were applied to correctly simulate the boiling process and vapor generation.
Mixing Length and Pressure Optimization in Ethanol-Gasoline Pipelines
Intermediate, Advanced
Price: $140
The study aims to optimize the mixing length and pressure balance within ethanol-gasoline T-shape pipeline systems, a critical factor for efficient fuel blending. Three distinct pipeline designs were evaluated, each with differing diameters (10-inch and 6-inch) to assess their effects on pressure drop and mixing efficiency This design successfully met all constraints, including maintaining the desired outlet ethanol volume fraction of 7.8% and ensuring the outlet pressure remained above 80 kPa, confirming the feasibility of using thinner pipelines for optimized fuel mix and flow conditions.
Complete Multiphase Flow CFD Course for VOF, Eulerian, Mixture, Wet Steam, and Two-Phase Flow Simulation
The Complete Multiphase Flow CFD Course: +275 Simulations by ANSYS Fluent is a specialized training solution for engineers, universities, professors, research institutes, companies, technical managers, and CFD teams that need practical expertise in multiphase flow simulation.
Developed by MR CFD, this course is part of MR CFD’s professional CFD Online Training and CFD Comprehensive Course is designed specifically for two-phase flow, three-phase flow, free-surface modeling, particle-laden flow, phase interaction, cavitation, boiling, evaporation, condensation, sedimentation, and industrial multiphase systems. The course is also offered as the Multi Phase Flow GOLDEN Training Package, giving buyers access to a complete all-in-one multiphase CFD simulation library for academic, industrial, research, chemical, mechanical, energy, and environmental applications.
This complete course covers Volume of Fluid model, Eulerian model, Mixture model, Wet Steam model, DDPM, PBM, cavitation, boiling, bubbles, open-channel flow, sloshing, waves, tanks, weirs, spillways, separators, hydrocyclones, reactors, fluidized beds, sprays, injectors, nanofluids, wet steam condensation, evaporation, and advanced multiphase process simulations.
Why Choose This Complete Multiphase Flow CFD Course?
This course is built for buyers who need practical multiphase simulation capability, not only theoretical knowledge of phase interaction. It helps engineering teams, academic departments, and industrial companies train users faster, reduce modeling uncertainty, and standardize CFD workflows for complex multiphase flow applications.
| Business Need | How This Complete CFD Course Solves It |
| Faster multiphase CFD onboarding | New engineers can learn from complete, pre-built multiphase CFD projects instead of disconnected tutorials. |
| Focused multiphase model coverage | The course is dedicated to VOF, Eulerian, Mixture, Wet Steam, DDPM, PBM, cavitation, boiling, sprays, and free-surface flow. |
| Reduced training cost | One comprehensive course replaces scattered learning resources, repeated internal training, and multiple single-topic tutorials. |
| Academic teaching support | Professors can use the simulations as practical teaching material for students, interns, and research assistants. |
| Enterprise workflow consistency | Teams can follow proven workflows for two-phase flow, three-phase flow, phase change, sedimentation, separation, and multiphase equipment modeling. |
| Real project readiness | Learners work with applied CFD simulations based on tanks, pumps, turbines, condensers, ejectors, reactors, injectors, channels, separators, and industrial process systems. |
A Specialized Multiphase CFD Course, Not a General CFD Package
This complete course is intentionally different from broader chemical, mechanical, or heat transfer CFD training. A general package may include many unrelated topics, while this course focuses specifically on multiphase flow CFD simulation and phase-interaction modeling.
It is built for teams that need direct simulation capability for VOF free-surface flow, Eulerian two-phase systems, Mixture model workflows, Wet Steam condensation, DDPM particle transport, PBM crystallization and bubble population, cavitation in pumps and turbines, boiling heat transfer, open-channel flow, separators, hydrocyclones, ejectors, and industrial multiphase processes.
| Feature | Complete Multiphase Flow CFD Course | General CFD Training Package |
| Main focus | Multiphase flow, VOF, Eulerian, Mixture, Wet Steam, DDPM, PBM, cavitation, boiling, and phase interaction | Broad CFD topics across unrelated engineering fields |
| Best for | CFD engineers, chemical engineers, process teams, mechanical engineers, energy teams, professors, and research groups | General engineers who need broad CFD exposure |
| Technical depth | Focused two-phase and three-phase modeling, free surfaces, bubbles, sprays, wet steam, sedimentation, and separation | Wider but less specialized coverage across multiple fields |
| Project scope | Tanks, channels, waves, pumps, turbines, reactors, separators, sprays, ejectors, condensers, and fluidized beds | Mixed applications with less dedicated multiphase depth |
| Purchase motivation | Build complete multiphase flow simulation capability | Build general CFD familiarity |
Complete Multiphase Flow CFD Training for Process, and Industrial Engineering Teams
This course gives your organization a structured path to multiphase CFD mastery. It supports users who need to simulate free-surface flow, open-channel hydraulics, bubbles, slugs, annular flow, churn flow, boiling, condensation, evaporation, cavitation, sprays, injection, sedimentation, water-sand flow, oil-water-gas flow, wet steam, tank filling and discharge, sloshing, spillways, weirs, ejectors, Venturi systems, pumps, turbines, fluidized beds, reactors, separators, and hydrocyclones.
For companies, this complete multiphase flow CFD course reduces dependency on isolated experts and creates a repeatable training pathway for CFD engineers, process engineers, mechanical engineers, chemical engineers, energy engineers, environmental engineers, and R&D departments. For universities and institutes, it provides ready-to-use simulation projects that can support lectures, laboratories, multiphase flow courses, process engineering research, hydraulic engineering studies, and advanced CFD training programs.
What You Get in This Multiphase Flow CFD Course
| Included Asset | Value for the Buyer |
| +275 CFD simulation projects | A comprehensive multiphase flow CFD library in one complete course package. |
| Step-by-step tutorials | Practical guidance from geometry creation to final post-processing. |
| Complete simulation workflows | Geometry, meshing, solver setup, multiphase model selection, phase interaction setup, result analysis, and engineering interpretation. |
| Advanced multiphase case studies | Coverage of VOF, Eulerian, Mixture, Wet Steam, DDPM, PBM, cavitation, boiling, separators, tanks, open channels, sprays, and reactors. |
| 1 year of technical support | Direct support from MR CFD experts for course users. |
| 3 months of HPC access | Additional computational resources for selected learning and simulation needs. |
| Regular course enhancements | Continued value through updates for emerging multiphase applications such as pipeline pigging, droplet impact, gas-liquid separators, FTS reactions, and advanced phase-interaction systems. |
Multiphase Flow CFD Topics Covered in This Complete Course
This complete CFD course covers a focused range of multiphase flow simulations, from fundamental two-phase flow models to advanced industrial, environmental, hydraulic, chemical, and energy applications.
| Training Area | Covered Topics |
| VOF model | Free-surface flow, bridge flooding, bubble traps, falling droplets, tank filling, water discharge, sloshing, waves, waterfalls, open channels, weirs, spillways, and fluid interfaces. |
| Eulerian model | Eulerian two-phase flow, moving wall cylinders, convergent-divergent channels, boiling, fluidized beds, jet impact, reactors, sedimentation, separators, and multiphase mixing. |
| Mixture model | Cavitation, centrifuges, sludge flow, electrolyzers, nanofluids, evaporation, mixing, two-phase transport, and multiphase heat transfer. |
| Wet Steam model | Wet steam condensation, steam ejectors, condensation inside ejectors, and wet steam multiphase model concepts. |
| Cavitation | Gerotor pumps, radial flow pumps, boat propellers, hydrokinetic turbines, Francis turbines, Turgo turbines, projectiles, and supercavitation studies. |
| Boiling and bubbles | Pool boiling, unconfined boiling, boiling inside nanotubes, bubble dynamics, bubble formation, boiling chambers, and bubbly flow behavior. |
| Flow regimes | Bubbly flow, slug flow, churn flow, annular flow, methanol micro-channel flow regimes, and slug flow with fluid-structure interaction. |
| Open-channel and hydraulic flow | Rough rivers, U-shaped channels, compound channels, side outlets, canals, pond overflow, floodplains, and open-channel two-phase flow. |
| Weirs and spillways | Broad-crested weirs, ogee spillways, stepped spillways, labyrinth spillways, transient spillway flow, and hydraulic jump investigation. |
| Tanks and sloshing | Tank charge and discharge, rotating tank discharge, water tank filling with UDF, sloshing tanks, cube rotation with sloshing, and dynamic mesh multiphase motion. |
| Venturi and ejectors | Venturi scrubbers, Venturi nozzles, Venturi air suction, venturimeters, two-phase ejectors, steam ejectors, and refrigerant cycle ejector applications. |
| Separators and hydrocyclones | Gas-liquid separators, vortex separators, FCC riser gas-solid separation, mud and sand separators, hydrocyclones, and demisters. |
| DDPM and particle-rich flows | Proppant transport, water-sand flow, elbow particle accumulation, hourglass DDPM and DEM, wire mesh demisters, and dense particle transport. |
| PBM applications | Crystallization, Loratadine crystallization, FeNi nanoparticle synthesis, air bubble population, nucleation, and population balance modeling. |
| Fluidized beds | Fluidized bed dryers, bubbling fluidized bed gasifiers, CFB boilers, fluidized bed reactors, bio-reactors, and polymerization reactors. |
| Sprays and injectors | Agricultural drone sprayers, roof water spraying, fuel injectors, three-phase injectors, spray systems, and multiphase injection. |
| Evaporation and condensation | Surface evaporation, solar desalination, evaporation-condensation rate with UDF, shell and tube condenser condensation, and pressure cooker simulations. |
| Industrial multiphase systems | Hydrate formation, borehole flow, firehose flow, plasma spray coating, FCC regenerator, gas sweetening hydrodynamics, and pipeline pigging. |
Advanced Multiphase CFD Modules Included
This complete course includes advanced simulation categories that help engineers move beyond basic two-phase flow modeling and into professional-grade multiphase flow analysis.
Key advanced modules include:
VOF simulations for free-surface flow, waterfalls, tanks, waves, sloshing, open channels, spillways, weirs, droplets, and fluid interface tracking.
Eulerian multiphase workflows for two-phase flow, boiling, fluidized beds, reactors, sedimentation, separators, and industrial gas-liquid or gas-solid systems.
Mixture model projects for cavitation, nanofluids, centrifuges, sludge transport, electrolysis, evaporation, and multiphase heat transfer.
Wet Steam simulations for steam ejectors, condensation, wet steam phase change, and refrigerant or power-related multiphase applications.
Cavitation studies for pumps, turbines, propellers, hydrokinetic systems, projectiles, and supercavitation scenarios.
Boiling and bubble dynamics for pool boiling, nanotube boiling, bubble chambers, bubble traps, and phase-change multiphase behavior.
DDPM and DEM multiphase projects for proppant transport, water-sand flow, dense particle motion, wire mesh demisters, and particle accumulation.
PBM simulations for crystallization, nucleation, nanoparticle synthesis, air bubble distribution, and population balance modeling.
Hydraulic and open-channel simulations for canals, rough rivers, compound channels, floodplains, weirs, spillways, hydraulic jumps, and dam-related flows.
Industrial process simulations for separators, hydrocyclones, fluidized beds, reactors, ejectors, condensers, injectors, gas sweetening, and filter cake formation.
Complete Multiphase Flow CFD Course vs Standard Multiphase Tutorials
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| Feature | Complete Multiphase Flow CFD Course | Standard Multiphase CFD Tutorial |
| Main purpose | Comprehensive CFD training for multiphase flow, VOF, Eulerian, Mixture, Wet Steam, DDPM, PBM, cavitation, and boiling | Single-topic learning for one multiphase model or case |
| Best for | Process teams, chemical engineers, mechanical engineers, hydraulic engineers, energy teams, professors, companies, and CFD specialists | Individual learners studying one basic multiphase workflow |
| Content depth | +275 applied multiphase CFD simulations | Limited number of cases |
| Project variety | Free surfaces, open channels, tanks, waves, cavitation, boiling, fluidized beds, separators, sprays, reactors, ejectors, wet steam, DDPM, and PBM | Usually limited to one model or one geometry |
| Business value | Reduces training cost, accelerates onboarding, and standardizes multiphase CFD capability | Builds knowledge in a narrow CFD task |
| Purchase motivation | Build complete multiphase flow simulation capability | Learn one multiphase simulation example |
</div>
Who Should Buy This Complete Multiphase Flow CFD Course?
This course is ideal for CFD engineers, chemical engineers, mechanical engineers, process engineers, hydraulic engineers, petroleum engineers, energy engineers, environmental engineers, university professors, research institutes, technical managers, product development teams, and advanced CFD practitioners.
It is especially valuable for organizations that want to train multiple users, reduce repeated onboarding, support academic programs, standardize multiphase CFD workflows, and improve internal simulation capability for two-phase flow, three-phase flow, industrial process equipment, hydraulic structures, separators, reactors, pumps, turbines, and phase-change systems.
Business Benefits of Buying This Complete Multiphase Flow CFD Course
| ROI Driver | Business Impact |
| Faster multiphase onboarding | New engineers become productive sooner on two-phase and three-phase CFD projects. |
| Reduced external training dependency | Teams can learn from a complete internal multiphase simulation resource. |
| Better workflow consistency | Engineers follow proven multiphase CFD workflows instead of scattered tutorials. |
| Lower project risk | Teams learn from pre-built, practical multiphase flow examples. |
| Stronger academic outcomes | Instructors can assign realistic multiphase CFD projects for VOF, Eulerian, Mixture, Wet Steam, cavitation, boiling, and separation. |
| Faster design improvement | Teams can evaluate tanks, channels, separators, pumps, turbines, reactors, injectors, and phase-change systems more efficiently. |
| Higher long-term value | One complete course supports repeated training across departments, students, interns, and new employees. |
Why This Complete CFD Course Is Built for Direct Purchase
When your team needs serious multiphase CFD capability, buying isolated tutorials one by one creates gaps, duplicated effort, and inconsistent learning outcomes. This complete course removes that friction by giving you a specialized multiphase simulation library in one purchase.
You get practical training built around real multiphase engineering applications, including VOF free-surface flow, Eulerian two-phase flow, Mixture model applications, Wet Steam condensation, DDPM transport, PBM crystallization, cavitation, boiling, open channels, tanks, sloshing, weirs, spillways, Venturi systems, ejectors, separators, hydrocyclones, reactors, sprays, fluidized beds, sedimentation, and industrial process equipment. That makes this course a strong choice for buyers who want immediate access to a focused, organized, and commercially valuable multiphase CFD learning system.
So...
Invest in the Multi Phase Flow GOLDEN Training Package: +275 CFD Simulations by ANSYS Fluent and give your team a complete multiphase CFD training system built for advanced industrial, academic, chemical, mechanical, hydraulic, energy, and environmental applications.
Whether you manage a university lab, a corporate CFD department, a process engineering team, a hydraulic engineering group, a chemical plant simulation unit, an energy systems team, or a technical training center, this course helps you reduce training time, improve simulation quality, and build long-term internal expertise.
Instead of purchasing separate tutorials and managing disconnected learning materials, choose one complete multiphase flow CFD course that delivers depth, technical support, HPC access, and practical project readiness in a single solution.
FAQ: Complete Multiphase Flow CFD Course
What is included in the Complete Multiphase Flow CFD Course?
The course includes +275 CFD simulation projects covering VOF, Eulerian, Mixture, Wet Steam, DDPM, PBM, cavitation, boiling, evaporation, condensation, open-channel flow, tanks, sloshing, separators, hydrocyclones, sprays, injectors, reactors, and fluidized beds.
Who is this multiphase flow CFD course designed for?
This course is designed for CFD engineers, chemical engineers, mechanical engineers, process engineers, hydraulic engineers, energy engineers, environmental engineers, university professors, research institutes, technical managers, and advanced CFD users who need practical multiphase simulation training.
Is this course different from a general chemical CFD course?
Yes. A general chemical CFD course may cover many process engineering topics, while this course focuses specifically on multiphase flow models, two-phase flow, three-phase flow, phase interaction, VOF, Eulerian, Mixture, Wet Steam, DDPM, PBM, cavitation, and boiling.
Does this course cover VOF free-surface simulations?
Yes. The course includes VOF simulations for open-channel flow, free surfaces, tank filling and discharge, waves, sloshing, waterfalls, spillways, weirs, falling droplets, and fluid interface tracking.
Does this course include Eulerian and Mixture model simulations?
Yes. The course covers Eulerian two-phase flow, boiling, fluidized beds, reactors, sedimentation, separators, and Mixture model applications such as cavitation, nanofluids, centrifuges, sludge flow, evaporation, and electrolysis.
Are cavitation and boiling simulations included?
Yes. The course includes cavitation in pumps, turbines, propellers, projectiles, and hydrokinetic systems, as well as boiling simulations such as pool boiling, unconfined boiling, boiling inside nanotubes, and bubble dynamics.
Does this course include DDPM and PBM projects?
Yes. The course includes DDPM projects for proppant transport, water-sand flow, elbow particle accumulation, hourglass simulations, and demisters, as well as PBM projects for crystallization, nucleation, air bubble population, and nanoparticle synthesis.
Are separators, hydrocyclones, and fluidized beds covered?
Yes. The course includes gas-liquid separators, vortex separators, FCC riser gas-solid separation, mud and sand separators, hydrocyclones, wire mesh demisters, fluidized bed dryers, gasifiers, boilers, and reactors.
Is technical support included after purchasing the course?
Yes. Buyers receive 1 year of non-limited technical support from MR CFD experts, helping learners and teams resolve technical questions related to the course simulations.
Why should I buy this complete multiphase CFD course instead of separate tutorials?
Buying this complete multiphase CFD course gives you a more organized, focused, and cost-effective training solution. It supports team-wide learning, reduces repeated training costs, and gives access to a specialized multiphase flow CFD simulation library in one purchase.