STAR-CCM+ Expert Applications, Vol 1: Real Engineering
Master complex STAR-CCM+ workflows for advanced physics, multiphase, moving systems, and real engineering applications
Lo que serás capaz de hacer
This course contains the use of artificial intelligence. AI Disclosure: Some audio narration in this course is generated using artificial intelligence (text-to-speech technology) to ensure clear, consistent, and high-quality delivery of the content. STAR-CCM+ Expert Applications: Complex CFD for Real Engineering Problems (Volume 1) is designed for learners who already understand the fundamentals of simulation and want to move into more demanding, high-value engineering work. This course goes beyond basic setup and standard workflows. The focus is on solving more complex CFD problems in STAR-CCM+ using deeper physics, stronger modeling strategy, and more professional simulation thinking. Instead of only learning where to click, you will learn how to approach difficult engineering cases with clarity, structure, and confidence. Throughout the course, you will work with advanced applications that reflect real engineering challenges. You will learn how to handle more complex geometries, more demanding boundary conditions, stronger physical interactions, and simulation cases that require careful decisions in setup, meshing, modeling, and post-processing. The goal is to help you build the judgment and workflow discipline needed for high-level CFD work. This course is especially suitable for engineers, researchers, graduate students, and simulation users who want to expand beyond introductory and intermediate STAR-CCM+ training. If you already know the basics and want to tackle more realistic, more technical, and more industrially relevant problems, this course is built for that next step. By the end of the course, you will be better prepared to build and analyze advanced STAR-CCM+ models, understand the logic behind complex simulation decisions, and apply the software more effectively to real engineering problems. This is not a beginner course. It is a higher-level training package for those who want to push their STAR-CCM+ skills further and develop a more expert, application-driven approach to CFD simulation.
- Build and run advanced STAR-CCM+ simulations for complex real engineering problems using professional CFD workflows.
- Set up moving-body simulations using overset mesh, rotation, translation, AMI, and DFBI-based motion modeling.
- Create and analyze marine and multiphase cases such as propeller performance prediction, water-entry simulation, and cyclone separator flow.
- Generate advanced geometries directly in STAR-CCM+ 3D-CAD, including parametric models and freeform surface deformation.
- Transition simulations from steady-state to more advanced unsteady workflows and interpret the physical differences in the results.
- Apply adjoint shape optimization to improve aerodynamic performance and automate optimization loops inside STAR-CCM+.
Temario
UNIDAD 1 - Motion Modeling Fundamentals with focus on Overset Mesh, Rotation, and AMI · 10 leccionesUNIDAD 1 - Motion Modeling Fundamentals with focus on Overset Mesh, Rotation, and AMI
UNIDAD 1 - Motion Modeling Fundamentals with focus on Overset Mesh, Rotation, and AMI
- Introduction to Motion Modeling in STAR-CCM+
- Creating the Benchmark Geometry and Parameters
- Splitting Surfaces and Naming the Boundaries
- Setting Up the Regions, Physics, and Overset Mesh
- Defining the Motion Model and Applying Rotation
- Adding Harmonic Translation to the Motion Setup
- Testing Constant Translation and Overset Limits
- Preparing the Geometry for an AMI Case
- Creating the AMI Interface and Refining the Mesh
- Creating Scenes for Visualization and Monitoring
UNIDAD 2 - Free-Fall Lifeboat Simulation: Overset Mesh, DFBI Motion, and VOF Waves · 15 leccionesUNIDAD 2 - Free-Fall Lifeboat Simulation: Overset Mesh, DFBI Motion, and VOF Waves
UNIDAD 2 - Free-Fall Lifeboat Simulation: Overset Mesh, DFBI Motion, and VOF Waves
- Lifeboat Case Overview and Simulation Roadmap
- Understanding the Lifeboat Benchmark Case
- Importing the Surface Mesh and Preparing the Regions
- Defining the Physics Continuum for VOF Flow
- Creating the Overset Interface Between the Regions
- Building the Background and Overset Meshes
- Positioning and Tilting the Lifeboat Before the Run
- Defining the Water and Air Phases
- Applying DFBI Motion to the Lifeboat
- Configuring the VOF Waves Model
- Setting the Initial Conditions for the Free Surface Case
- Applying the Boundary Conditions
- Configuring the Solver and Stopping Criteria
- Creating the Main Monitoring Scenes
- Initializing, Running, and Reviewing the Case
UNIDAD 3 - Ship Propeller with MRF and RBM: Meshing, Performance Curves, and Cavitation · 10 leccionesUNIDAD 3 - Ship Propeller with MRF and RBM: Meshing, Performance Curves, and Cavitation
UNIDAD 3 - Ship Propeller with MRF and RBM: Meshing, Performance Curves, and Cavitation
- Introduction to the Marine Propeller Benchmark
- Reviewing the Starter File and Geometry Setup
- Meshing the Propeller and Defining the Boundary-Layer Strategy
- Interface Meshing and Extrusion Region Creation
- Applying Boundary Conditions and Automating the J Sweep
- Creating the Performance Reports
- Creating Monitors and Performance Plots
- Initializing and Running the Sweep
- Preparing the Cavitation-Risk Visualization
- Advanced Regional Physics and Meshing Tips
UNIDAD 4 - Advanced Geometry Creation in STAR-CCM+ · 2 leccionesUNIDAD 4 - Advanced Geometry Creation in STAR-CCM+
UNIDAD 4 - Advanced Geometry Creation in STAR-CCM+
- Parametric Cyclone Separator Geometry in STAR-CCM+: Full 3D-CAD Modeling
- Freeform Wing Surface Deformation and Parametric Shape Control: Surface Morphing
UNIDAD 5 - Cyclone Separator Flow Simulation: From Steady to Anisotropic Unsteady Analysis · 2 leccionesUNIDAD 5 - Cyclone Separator Flow Simulation: From Steady to Anisotropic Unsteady Analysis
UNIDAD 5 - Cyclone Separator Flow Simulation: From Steady to Anisotropic Unsteady Analysis
- Building the Steady Cyclone Separator Simulation
- Running the Anisotropic Unsteady Cyclone Simulation
UNIDAD 6 - Adjoint Shape Optimization in STAR-CCM+: Dual-Element Wing Downforce · 8 leccionesUNIDAD 6 - Adjoint Shape Optimization in STAR-CCM+: Dual-Element Wing Downforce
UNIDAD 6 - Adjoint Shape Optimization in STAR-CCM+: Dual-Element Wing Downforce
- Introduction to Adjoint Shape Optimization
- Reviewing the Wing Case and Prepared Mesh Controls
- Meshing the Case and Activating the Adjoint Models
- Creating the Cost Function and Morphing Point Sets
- Defining the Displacement Field for the Control Points
- Automating the Optimization Sequence with Simulation Operations
- Tuning the Solvers and Launching the Optimization Run
- Reviewing the Final Optimization Results
UNIDAD 7 - Design Exploration in STAR-CCM+: Part Replacement and Spoiler Design Sweeps · 3 leccionesUNIDAD 7 - Design Exploration in STAR-CCM+: Part Replacement and Spoiler Design Sweeps
UNIDAD 7 - Design Exploration in STAR-CCM+: Part Replacement and Spoiler Design Sweeps
- Introduction to Design Manager and the Spoiler Comparison Case
- Setting Up the Replace Part Operation
- Creating and Running the Spoiler Design Sweep
UNIDAD 8 - Adjoint Topology Optimization in STAR-CCM+: Design for Minimum Pressure · 8 leccionesUNIDAD 8 - Adjoint Topology Optimization in STAR-CCM+: Design for Minimum Pressure
UNIDAD 8 - Adjoint Topology Optimization in STAR-CCM+: Design for Minimum Pressure
- Introduction to Adjoint Topology Optimization
- Selecting the Physics Models for the Topology Case
- Creating the AMR Sensor for Topology Optimization
- Pressure Drop Objective and Solid Volume Constraint
- Plot and Scene Setup for Optimization Monitoring
- Automating the Topology Optimization Sequence
- Running the Optimization and Reviewing the Final Topology
- Extracting and Smoothing the Optimized Channel Surface
Tu certificado lo emite la SEP, no solo una plataforma
Al demostrar la competencia recibes un certificado emitido por la Secretaría de Educación Pública a través del Gobierno del Estado de México: un documento oficial que puedes presentar con confianza ante cualquier empleador o institución.
Tu certificado con INEC
- Lo emite la Secretaría de Educación Pública (SEP), a través del Gobierno del Estado de México
- Documento oficial con folio verificable en línea
- Lo otorga la Universidad Tecnológica Fidel Velázquez
Otras plataformas en línea
- Constancia privada emitida por la misma plataforma
- Solo acredita horas cursadas o asistencia
- Sin respaldo de una autoridad educativa
Tu itinerario, de la inscripción al certificado
- 1
Inscripción con pago único
Pagas $2,800 MXN una sola vez y entras de inmediato al curso.
- 2
Estudias a tu ritmo
8 unidades con videos, lecturas y actividades, disponibles 24/7 durante 12 meses.
- 3
Cuestionarios por unidad
Cuestionarios para comprobar lo aprendido.
- 4
Certificado
Emitido por la SEP a través del Gobierno del Estado de México, con folio verificable.
Un certificado oficial de la SEP
Muestra · verificable por folio y QR
- Emitido por la Secretaría de Educación Pública (SEP), a través del Gobierno del Estado de México. No es una constancia privada: es un documento oficial, y ese respaldo marca la diferencia frente a otras plataformas en línea.
- Contenido impartido por Sahar Rouzbahani.
- Folio y QR verificables para compartirlo con quien te contrate.
Empieza hoy, a tu ritmo
Un solo pago y acceso inmediato al curso completo durante 12 meses.
- 8 unidades · 58 lecciones · 40 h
- 12 meses de acceso
- Certificado emitido por la SEP (Gob. del Estado de México) con folio verificable
Sobre tu inscripción
¿Cómo es el pago?
Un solo pago de $2,800 MXN. No hay mensualidades ni cargos recurrentes.
¿Cuánto tiempo tengo acceso?
12 meses desde tu inscripción, 24/7, para avanzar a tu ritmo.
¿Quién imparte el contenido?
El curso es impartido por Sahar Rouzbahani; INEC gestiona tu inscripción, evaluación y certificado.
¿Qué pasa cuando vence mi acceso?
Puedes renovar tu cuenta tú mismo desde la plataforma, sin trámites ni esperas.
