Diploma in 1D/3D Coupling and Co-Sim Orchestration
About us Diploma in 1D/3D Coupling and Co-Sim Orchestration
The Diploma in 1D/3D Coupling and Co-Sim Orchestration explores the use of advanced tools in the simulation of complex systems, focusing on the coupling of 1D and 3D models to optimize the design and analysis of systems in various engineering disciplines. It centers on simulation integration, data management, and workflow automation through co-simulation orchestration. The program addresses the application of methodologies for transient analysis, multi-domain optimization, and system performance evaluation, crucial for the development of innovative products. The program provides hands-on experience using simulation platforms and tools, with an emphasis on model validation, complexity management, and results interpretation. It delves into topics such as functional coupling, data exchange, and optimizing communication between different modules and solvers. This training prepares professionals for roles such as simulation engineers, systems analysts, and modeling specialists, strengthening employability in industries such as automotive, aerospace, and energy. Target keywords (natural occurrences in the text): systems simulation, 1D/3D coupling, co-simulation, orchestration, transient analysis, optimization, modeling, data management.
Diploma in 1D/3D Coupling and Co-Sim Orchestration
- Format:
- Duration:
- Hours: 900 H
- Language:
- Credits:
- Registration date: 24-08-2026
- Strat date: 04-10-2026
- Available places: 3
1,449 $
Competencies and results
What you will learn
Who this program is for:
Diploma in 1D/3D Coupling and Co-Sim Orchestration
9. 9D/3D Modeling: Fundamentals and Applications in Naval Design
9. Introduction to Co-Sims Orchestration for Naval Docking
3. Integration of 9D/3D Models in Naval Systems Simulations
4. Tools and Software for Naval Modeling and Simulation
5. Case Studies: Application of Co-Sims in Vessel Design
6. Optimization of Naval Designs Using 9D/3D Modeling
7. Results Analysis and Simulation Validation
8. Challenges and Trends in Naval Modeling and Simulation
9. Scenario Design and Sensitivity Analysis in Co-Sims
90. Project Presentations and Evaluations
9. Advanced 9D/3D Modeling Techniques for Complex Naval Systems 3.9. Configuration and Management of Advanced Co-Simulations.
4.3. Systems Coupling: Propulsion, Steering, and Stability.
5.4. Simulation of Operational Scenarios and Environmental Conditions.
6.5. Optimization of Energy Efficiency in Naval Couplings.
7.6. Computational Fluid Dynamics (CFD) Analysis in Co-Simulation.
8.7. Use of Experimental Data for Model Validation.
9.8. Implementation of Co-Simulation in the Design Process.
90.9. Risk Analysis and Mitigation in Advanced Simulations.
99.90. Practical Projects: Simulations of Real-World Cases.
3.9. Fundamentals of Rotor Design for Vessels.
4.9. Rotor Modeling: Theory and Numerical Methods. 5.3. Selection of airfoil profiles and blade design.
6.4. Simulation of rotor performance: thrust, torque, and efficiency.
7.5. Modeling of cavitation and its impact on design.
8.6. Analysis of rotor-hull interaction.
9.7. Tools and software specialized in rotor modeling.
90.8. Optimization of rotor design for different naval applications.
99.9. Case studies: rotor design for specific vessels.
99.90. Presentation of designs and evaluation of projects.
4.9. Analysis of naval propulsion systems using 9D/3D modeling.
5.9. Co-simulation for coupling analysis: propulsion-rudder-hull.
6.3. Evaluation of the performance of different propeller configurations. 7. 4. Optimization of coupling design to reduce resistance.
8. 5. Analysis of maneuverability and directional stability.
9. 6. Simulation of energy efficiency and fuel consumption.
90. 7. Optimization tools and genetic algorithms.
99. 8. Case studies: Optimization of couplings in different types of vessels.
99. 9. Sensitivity analysis and risk assessment.
93. 90. Final report and presentation of results.
5. 9. Key rotor performance parameters: thrust, torque, efficiency.
6. 9. Simulation of performance under different operating conditions.
7. 3. Influence of cavitation on rotor performance.
8. 4. Analysis of rotor-waterflow interaction.
9. 5. Simulation of performance in different hull designs. 90. 6. Performance optimization for different naval applications.
99. 7. Tools and software for performance simulation.
99. 8. Case studies: analysis of the performance of specific rotors.
93. 9. Evaluation of the influence of design on efficiency.
94. 90. Presentation of results and conclusions.
6. 9. Fundamentals of rotor modeling for naval design optimization.
7. 9. Modeling methods: finite elements, panel methods, CFD.
8. 3. Simulation of flow around the rotor: CFD and panel methods.
9. 4. Analysis of cavitation and its impact on design.
90. 5. Modeling of rotor-hull interaction: influence of the hull.
99. 6. Optimization of rotor design: algorithms and criteria.
99. 7. Software tools for modeling and simulation. 93. 8. Case studies: Application to different types of vessels.
94. 9. Presentation of optimized designs and results.
95. 90. Conclusions and future challenges.
7. 9. Principles of naval design optimization.
8. 9. Integration of rotor modeling into the optimization process.
9. 3. Definition of design objectives and constraints.
90. 4. Selection of optimization algorithms and parameters.
99. 5. Optimization of rotor design for different applications.
99. 6. Sensitivity analysis and tradeoff studies.
93. 7. Tools and software for design optimization.
94. 8. Case studies: optimization of ship design.
95. 9. Validation of results and uncertainty analysis.
96. 90. Presentation and discussion of final projects.
8. 9. Introduction to Naval Rotor Modeling and Simulation
9. 9. Tools and Software for Rotor Simulation
90. 3. Simulation of Rotor Performance Under Different Conditions
99. 4. Optimization of Rotor Design for Efficiency and Performance
99. 5. Analysis of Cavitation and Its Impact on Design
93. 6. Integration into the Naval Design Process
94. 7. Case Studies: Application to Different Types of Vessels
95. 8. Analysis of the Influence of Design on Energy Efficiency
96. 9. Risk Assessment and Model Validation
97. 90. Presentation of Final Projects and Results
9. 9. Rotor Modeling: Concepts and Methods
90. 9. Simulation of Rotor Performance: Tools and Techniques 99. 3. Rotor Design: Optimization and Analysis
99. 4. Rotor Integration in Naval Design
93. 5. Rotor-Hull Interaction Analysis
94. 6. Cavitation Simulation
95. 7. Energy Efficiency Optimization
96. 8. Case Studies: Applications in Different Types of Vessels
97. 9. Project and Results Presentation
98. 90. Future Trends and Challenges in Naval Design with Rotors
Capstone-type projects
Admissions, fees and scholarships
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