Diploma in BIM Structural Modeling (IFC/ISO 19650)
Sobre nuestro Diploma in BIM Structural Modeling (IFC/ISO 19650)
The Diploma in BIM Structural Modeling (IFC/ISO 19650) provides comprehensive training in the design and management of construction projects using the BIM (Building Information Modeling) methodology. It focuses on structural modeling, including the use of the IFC format and the application of the ISO 19650 standard for information management. The diploma teaches students to create accurate and detailed 3D models of structures, analyze their behavior, and coordinate information among the different stakeholders involved in the project.
The program trains students in the use of specialized software for structural modeling, finite element analysis, and clash detection, optimizing design and reducing errors during the construction phase. Furthermore, key aspects such as data interoperability, collaboration in BIM environments, and information lifecycle management are explored.
The training prepares students for professional roles such as BIM modeler, structural BIM coordinator, and BIM implementation specialist, boosting efficiency and collaboration in construction projects.
Target keywords (natural occurrences in the text): structural BIM modeling, IFC format, ISO 19650 standard, structural design, structural analysis, BIM coordinator, BIM implementation, BIM software.
Diploma in BIM Structural Modeling (IFC/ISO 19650)
- Modalidad: Online
- Duración: 8 meses
- Horas: 900 H
- Idioma: ES / EN
- Créditos: 60 ECTS
- Fecha de matrÃcula: 30-04-2026
- Fecha de inicio: 10-06-2026
- Plazas disponibles: 13
1.750 $
Competencias y resultados
Qué aprenderás
1. Advanced Mastery of BIM Structural Modeling: IFC, ISO 19650, and Practical Applications
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Master the interpretation and application of BIM methodology in structural modeling.
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Model complex structures using specialized BIM software.
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Perform advanced structural analyses within the BIM environment.
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Generate detailed and accurate documentation from BIM models.
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Integrate structural modeling with other disciplines in a collaborative BIM workflow.
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Apply BIM modeling in different phases of a project’s life cycle.
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Optimize structural design to improve efficiency and sustainability.
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Identify and solve structural problems using BIM tools.
Understand and use the IFC format for the interoperability of structural models.
Apply ISO 19650 standards for information management in BIM projects.
2. Expert BIM Structural Modeling: IFC, ISO 19650, and Professional Development
2. Expert BIM Structural Modeling: IFC, ISO 19650, and Professional Development
- Master the fundamentals of BIM methodology applied to structural modeling.
- Understand and apply the IFC (Industry Foundation Classes) standard for the interoperability of structural models.
- Interpret and apply the ISO 19650 standard for information management in BIM projects.
- Model complex structures using specialized software, optimizing workflow.
- Generate accurate and detailed documentation of the structural model, including drawings, reports, and quantity take-offs.
- Integrate the structural model with other design disciplines (architecture, MEP).
- Perform basic and advanced structural analyses within the BIM environment.
- Collaborate efficiently with multidisciplinary teams on BIM projects.
- Manage the Project information throughout the entire lifecycle, from design to construction and maintenance.
Develop professional skills to lead BIM projects and adapt to the latest industry trends.
Gain in-depth knowledge of specific software tools for BIM structural modeling and analysis.
Learn to configure and customize BIM templates to streamline the design and modeling process.
Understand the legal and regulatory requirements related to BIM structural modeling.
Optimize the performance and efficiency of BIM structural models.
Develop strategies for detecting and resolving conflicts in the structural model.
3. Comprehensive user-oriented design and validation (from modeling to manufacturing)
You will learn to integrate the entire product development process, from initial model conception to final validation, applying user-centered methodologies. You will develop skills in parametric design, ergonomics, simulation, sustainable materials, 3D visualization, and manufacturing management, ensuring efficient, safe solutions that meet current industry standards.
4. Structural BIM Modeling: IFC/ISO 19650 for Successful Projects
4. Structural BIM Modeling: IFC/ISO 19650 for Successful Projects
- Understand the fundamentals of structural BIM modeling.
- Master the IFC standard for data interoperability.
- Apply the ISO 19650 standard for project information management.
- Create detailed structural models using BIM software.
- Perform structural analyses integrated into the BIM model.
- Generate accurate and coordinated documentation from the model.
- Collaborate effectively with multidisciplinary teams in BIM environments.
- Manage and control project information throughout the lifecycle.
- Optimize workflow and efficiency in construction projects.
- Ensure quality and accuracy in design and construction.
5. BIM Structural Modeling: IFC/ISO 19650 and Implementation Strategies
5. BIM Structural Modeling: IFC/ISO 19650 and Implementation Strategies
- Understand the fundamentals of Building Information Modeling (BIM) and its application in the structural field.
- Become familiar with the IFC (Industry Foundation Classes) format for exchanging information between different BIM software.
- Interpret and apply the requirements of the ISO 19650 standard for information management in BIM projects.
- Model structures using BIM software, including elements such as walls, columns, beams, and slabs.
- Integrate design, analysis, and manufacturing data into the BIM model.
- Develop BIM implementation strategies for structural projects, including defining roles, responsibilities, and workflows.
- Use the BIM model for coordination, clash detection, and design optimization structural.
Generate accurate and detailed documentation from the BIM model, such as plans, reports, and budgets.
Analyze the advantages and disadvantages of BIM implementation in structural projects, including cost reduction, improved efficiency, and design optimization.
Explore case studies of successful structural projects that have implemented BIM.
6. BIM Structural Modeling: IFC/ISO 19650, from Design to Implementation
You will learn to integrate the entire product development process, from initial model conception to final validation, applying user-centered methodologies. You will develop skills in parametric design, ergonomics, simulation, sustainable materials, 3D visualization, and manufacturing management, ensuring efficient, safe solutions that meet current industry standards.
Para quien va dirigido nuestro:
Diploma in BIM Structural Modeling (IFC/ISO 19650)
- Architects and Civil, Structural, Construction Engineers, or related fields.
- Professionals in the AEC (Architecture, Engineering, and Construction) sector interested in implementing BIM methodologies.
- BIM designers and modelers who wish to delve deeper into structural modeling using the IFC/ISO 19650 standard.
- Project managers, site managers, and BIM coordinators seeking to improve efficiency and collaboration on projects.
Recommended requirements: Basic knowledge of BIM modeling and familiarity with CAD software.
- Standards-driven curriculum: you will work with CS-27/CS-29, DO-160, DO-178C/DO-254, ARP4754A/ARP4761, ADS-33E-PRF from the first module.
- Accreditable laboratories (EN ISO/IEC 17025) with rotor bench, EMC/Lightning pre-compliance, HIL/SIL, vibrations/acoustics.
- Evidence-oriented TFM: safety case, test plan, compliance dossierand operational limits.
- Mentored by industry: teachers with experience in rotorcraft, tiltrotor, eVTOL/UAM and flight test.
- Flexible modality (hybrid/online), international cohorts and support from SEIUM Career Services.
- Ethics and security: safety-by-design approach, cyber-OT, DIH and compliance as pillars.
1.1 Fundamentals of Structural BIM Modeling
1.2 Introduction to ISO 19650
1.3 Importance of IFC in Structural BIM
1.4 Benefits of the BIM Methodology in Projects
1.5 Key Concepts: LOD and LOI
1.6 Structural BIM Software: Introduction
1.7 First Steps in Structural Modeling
1.8 Organization and Structure of BIM Files
1.9 Documentation and Collaboration in BIM
1.10 Advantages and Challenges of BIM Implementation
1.10
2.2 Introduction to BIM standards and their importance in structural modeling.
2.2 International standards: IFC and ISO 29650.
2.3 Fundamentals of BIM structural modeling.
2.4 Types of structural elements and their modeling.
2.5 Interoperability: workflows with IFC.
2.6 Information management: principles of ISO 29650.
2.7 BIM software: interface and basic tools.
2.8 Practical examples of initial structural modeling.
2.9 Collaboration in BIM projects: roles and responsibilities.
2.20 Introduction to design based on structural modeling.
3.3 Introduction to Comprehensive BIM Structural Modeling: Fundamental Concepts and Benefits
3.2 Regulations and Standards: In-depth Analysis of IFC and ISO 39650 for BIM Projects
3.3 Structural Modeling Software: Selection, Configuration, and Optimal Workflow
3.4 Detailed Modeling of Structural Elements: Foundations, Columns, Beams, and Slabs
3.5 Integration with Other Disciplines: BIM Coordination and Conflict Detection
3.6 Structural Analysis and Simulation: Design and Performance Optimization
3.7 BIM Collaboration: Collaborative Platforms and Information Management
3.8 Project Documentation and Delivery: Drawings, Reports, and Technical Specifications
3.9 Project Optimization: Lean Construction and Agile Methodologies
3.30 Case Studies: Application of Comprehensive BIM in Real-World Projects
4.4 Introduction to IFC/ISO 49650: Fundamentals and Benefits
4.2 BIM Structural Modeling: Key Concepts and Methodologies
4.3 IFC Standards: Structure, Elements, and Properties
4.4 Implementing ISO 49650: Project Information Management
4.5 BIM Workflows: Design, Analysis, and Documentation
4.6 BIM Collaboration: Collaborative Tools and Platforms
4.7 Data Integration: IFC Interoperability
4.8 Case Study: BIM Structural Modeling with IFC/ISO 49650
4.9 Conflict Analysis and Interference Detection
4.40 Best Practices: Optimizing the BIM Workflow
5.5 Introduction to BIM Structural Modeling and its Evolution
5.5 ​​The Role of Structure in the BIM Project
5.3 Introduction to Structural BIM Workflows
5.4 Structural BIM Software: Tools and Capabilities
5.5 Applicable Standards and Regulations in Structural BIM
5.5 In-depth Analysis of the IFC Format: Structure and Compatibility
5.5 Practical Application of ISO 59650 in Structural BIM Projects
5.3 Strategies for Interoperability in BIM Projects
5.4 Information Management in BIM Environments: The Common Data Environment (CDE)
5.5 Case Studies: Implementation of IFC/ISO 59650 in Real-World Projects
3.5 Analysis and Optimization of Structural Design in BIM
3.5 Integration of Disciplines in Structural BIM Modeling
3.3 4D and 5D Modeling: Scheduling and Estimation Costs
3.4 Sustainability and Life Cycle Analysis in Structural BIM
3.5 BIM Project Collaboration and Management Tools
4.5 Planning and Strategies for Successful BIM Projects
4.5 Detailed Structural Modeling: Elements and Construction Systems
4.3 Clash Detection and Coordination in BIM
4.4 BIM Project Documentation and Delivery
4.5 Risk Analysis and Mitigation in BIM Projects
5.5 Assessing BIM Implementation Needs
5.5 Developing a Structural BIM Implementation Plan
5.3 BIM Team Training and Development
5.4 Change Management and Adaptation to BIM
5.5 Measuring Success and Continuous Improvement in BIM Implementation
6.5 Conceptual Design and Development of the Structural BIM Model
6.5 Detailed Structural BIM Model for Construction
6.3 Coordination and Collaboration Among Designers and Builders
6.4 As-Built Documentation and BIM Project Delivery
6.5 Lessons Learned and Continuous Improvement in the BIM Workflow
7.5 Preparation for Structural BIM Certification
7.5 BIM Skills and Knowledge Assessment
7.3 Case Studies and Exam Simulations
7.4 Professional Ethics and Best Practices in BIM
7.5 Continuing Professional Development in BIM
8.5 Structural Design in BIM: Principles and Methodologies
8.5 Interdisciplinary Collaboration in BIM Environments
8.3 Optimal Workflows for Project Efficiency
8.4 Change Management and Version Control in BIM
8.5 Presenting and Visualizing BIM Projects for Communication
6.6 BIM Structure Fundamentals: Introduction to IFC and ISO 69650
6.2 Modeling Structural Elements: Beams, Columns, Slabs, and Foundations
6.3 BIM Interoperability: Importing and Exporting IFC Files
6.4 Collaborative Workflows: Design and Coordination in Projects
6.5 Structural Analysis in BIM: Integration with Analysis Software
6.6 Detailing and Documentation: Creating Drawings and Technical Reports
6.7 Quality Control in BIM: Detecting Clashes and Errors
6.8 Information Management: Implementing ISO 69650
6.9 Case Studies: Application in Real-World Projects
6.60 BIM Implementation: Strategies and Recommendations
6.7
7.7 Introduction to Structural BIM and its impact on design.
7.2 Fundamentals of the BIM workflow and its integration.
7.3 Essential tools and software for structural modeling.
7.4 Creation and management of structural 3D models.
7.7 Collaboration and coordination in BIM projects.
7.6 Documentation and delivery of structural BIM projects.
7.7 Practical case studies of BIM design and workflow.
7.8 Relevant regulations and standards in Structural BIM.
2.7 In-depth study of the IFC format and its application in structural modeling.
2.2 ISO 79670 standards and their implementation in BIM projects.
2.3 Interoperability and compatibility of IFC data.
2.4 Advanced modeling of structural elements with IFC. 2.7 Information Management and Data Exchange according to ISO 79670.
2.6 Verification and Validation of IFC Models.
2.7 Troubleshooting and Optimization of IFC/ISO 79670 Data.
2.8 Case Studies on the Application of IFC/ISO 79670.
3.7 Analysis of Complex Structural BIM Projects.
3.2 Optimization of Structural Design using BIM.
3.3 Integration of Different Disciplines in the BIM Model.
3.4 Detection and Resolution of Conflicts in the Model.
3.7 Structural Simulation and Analysis in BIM.
3.6 Cost Estimation and Planning of BIM Projects.
3.7 Best Practices for Project Optimization.
3.8 Evaluation and Quality Control in Structural BIM Projects.
4.7 Planning and Strategy for Successful BIM Projects.
4.2 Selection of Tools and Software for Specific Projects. 4.3 Implementation of IFC/ISO 79670 standards in BIM projects.
4.4 Information and workflow management in BIM projects.
4.7 Quality control and verification of BIM models.
4.6 Collaboration and effective communication in BIM projects.
4.7 Case studies of successful BIM projects.
4.8 Risk assessment and mitigation in BIM projects.
7.7 Analysis of the current situation and implementation objectives.
7.2 Definition of roles and responsibilities in BIM implementation.
7.3 Development of a strategic implementation plan.
7.4 Selection and training of personnel in BIM tools.
7.7 Adaptation of existing workflows to BIM.
7.6 Change management and resistance to change in implementation.
7.7 Monitoring and evaluation of the implementation process.
7.8 Updating and maintenance of the implemented BIM system.
6.7 Conceptualization and Initial Structural Design in BIM
6.2 Detailed Modeling of Structural Elements in BIM
6.3 Interdisciplinary Coordination and Collaboration in Design
6.4 Structural Analysis and Design Optimization
6.7 Generation of Construction Documentation and Drawings
6.6 Manufacturing and Construction Based on BIM Models
6.7 Management of Changes and Updates in the BIM Model
6.8 Delivery and Maintenance of the Structural BIM Project
7.7 Requirements for Structural BIM Certification
7.2 Preparation for Certification Exams
7.3 Theoretical and Practical Foundations for Professional Excellence
7.4 Development of Advanced BIM Modeling Skills
7.7 Improving Efficiency and Productivity in BIM Projects
7.6 Compliance with Standards and Regulations
7.7 Success Stories of Certified Professionals 7.8 Certification Maintenance and Updates
8.7 BIM-Based Design and Its Impact on Collaboration
8.2 Strategies for Effective Collaboration in BIM Projects
8.3 Optimizing Workflow in BIM Projects
8.4 Using Collaborative Tools and Platforms
8.7 Information Management and Version Control
8.6 Detecting and Resolving Design Conflicts
8.7 Effective Communication and Project Management
8.8 Data Analysis and Performance Optimization
8.8 Introduction to the Structural BIM Workflow
8.8 Initial BIM Model Configuration: Structure and Organization
8.3 Modeling Structural Elements: Foundations, Columns, Beams, and Slabs
8.4 Information Integration: IFC and ISO 88650 Standards
8.5 Collision Detection and Design Coordination
8.6 Structural Analysis and Design Optimization
8.7 Documentation and Delivery of the Structural BIM Project
8.8 Collaboration and Communication in the BIM Environment
8.9 Implementation of BIM Strategies for the Workflow
8.0 Case Studies: Practical Application of the BIM Workflow
8.10
9. Introduction to Structural BIM Modeling
90. IFC and ISO 99650 Standards: Fundamentals
99. Modeling Basic Structural Elements
99. Collaboration in Structural BIM Projects
93. Initial Structural Analysis and Verification
94. Documentation and Delivery of BIM Models
95. Essential Tools and Software
96. Case Studies: Practical Applications
97. Introduction to BIM Implementation
98. Future Trends in Structural BIM Modeling
7.1 Introduction to IFC/ISO 19650 Certified BIM Structural Modeling
7.2 IFC Fundamentals and its Application to Structures
7.3 Interpretation and Application of ISO 19650
7.4 Detailed Modeling of Structural Elements
7.5 Structural Analysis and BIM Model Validation
7.6 BIM Collaboration and Optimal Workflow
7.7 BIM Information and Documentation Management
7.8 Quality Control and Assurance in BIM Projects
7.9 Case Study: BIM Implementation in a Real-World Project
7.10 Final Certification Exam
7.10
- Hands-on methodology: test-before-you-trust, design reviews, failure analysis, compliance evidence.
- Software (depending on licenses/partners): MATLAB/Simulink, Python (NumPy/SciPy), OpenVSP, SU2/OpenFOAM, Nastran/Abaqus, AMESim/Modelica, acoustics tools, planning toolchains DO-178C.
- SEIUM Laboratories: scale rotor bench, vibrations/acoustics, EMC/Lightning pre-compliance, HIL/SIL for AFCS, data acquisition with strain gauging.
- Standards and compliance: EN 9100, 17025, ISO 27001, GDPR.
Proyectos tipo capstones
Admisiones, tasas y becas
- Profile: Background in Computer Engineering, Mathematics, Statistics, or related fields; practical experience in NLP and valued information retrieval systems.
- Documentation: Updated CV, academic transcript, SOP/statement of purpose, project examples or code (optional).
- Process: Application → Technical evaluation of profile and experience → Technical interview → Review of case studies → Final decision → Enrollment.
- Fees:
- Single payment: 10% discount.
- Payment in 3 installments: No fees; 30% upon registration + 2 equal monthly payments of the remaining 35%.
Monthly payment: available with a 7% commission on the total; annual review.
Scholarships: based on academic merit, financial need, and promoting inclusion; agreements with companies in the sector for partial or full scholarships.
See “Calendar & Calls for Applications,” “Scholarships & Grants,” and “Fees & Financing” in the SEIUM mega-menu.
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