Diploma in CDE, Data Governance and BIM Traceability
Sobre nuestro Diploma in CDE, Data Governance and BIM Traceability
The Diploma in CDE, Data Governance, and BIM Traceability focuses on the strategic management of information and the optimization of processes in the construction sector. It centers on the implementation of Common Data Environments (CDE), the establishment of Data Governance frameworks, and the application of BIM (Building Information Modeling) traceability. This program aims to prepare professionals to efficiently manage the information generated in construction projects, from the design phase to final delivery, ensuring quality, transparency, and regulatory compliance.
Participants will acquire practical knowledge on the implementation of CDEs for collaborative project management, the design and implementation of Data Governance policies to ensure the integrity and security of information, and the use of BIM tools for monitoring and controlling the traceability of construction elements.
The diploma program also addresses the integration of technologies such as artificial intelligence and data analytics to optimize decision-making and improve efficiency in project management.
Target keywords (natural in the text): CDE, Data Governance, BIM traceability, project management, construction, artificial intelligence, data analytics, information management, BIM platforms.
Diploma in CDE, Data Governance and BIM Traceability
- 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
1.580 $
Competencias y resultados
Qué aprenderás
1. CDE Mastery, Data Governance, and BIM Traceability for Naval Projects
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You will master the use of Common Data Environments (CDEs) for the centralized management of information in naval projects, ensuring data accessibility, collaboration, and integrity throughout the project lifecycle.
You will understand the principles of Data Governance, establishing policies, procedures, and responsibilities for the effective management of data in naval projects, ensuring quality, security, and regulatory compliance.
You will apply Building Information Modeling (BIM) traceability in naval projects, tracking and managing information from design to construction and maintenance, improving efficiency, accuracy, and transparency.
You will learn to model and analyze the structural behavior of naval components using advanced simulation software, including finite element analysis (FEA).
You will study fatigue and durability analysis techniques to ensure the strength and service life of naval structures, considering the effects of cyclic loading and the marine environment.
You will become familiar with standards and best practices for vessel design and construction, from regulatory compliance to optimizing efficiency and safety.
You will develop skills in naval project management, including planning, scheduling, cost control, and risk management, using industry-specific tools and methodologies.
2. Strategic Implementation of CDE, Data Governance, and BIM Traceability in the Naval Sector
2. Strategic Implementation of Common Data Environments (CDE), Data Governance, and BIM Traceability in the Naval Sector
- Master the fundamentals of the **Strategic Implementation of Common Data Environments (CDE)** in naval projects.
- Understand the principles of **Data Governance** and their application to ensure the quality, integrity, and accessibility of information.
- Learn to establish and manage **Building Information Modeling (BIM)** traceability throughout the lifecycle of naval assets.
- Identify and apply methodologies for interoperability and data management in multidisciplinary environments.
- Evaluate and select appropriate CDE tools and platforms for the naval sector, including their integration with design and management systems.
- Develop skills for creating and managing optimized workflows for information exchange in projects Naval.
- Analyze and mitigate the risks associated with data management, including information security and regulatory compliance.
- Implement strategies for the continuous improvement of CDE processes, Data Governance, and BIM Traceability.
- Establish key metrics for monitoring and evaluating implementation performance.
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. Advanced Strategies in CDE, Data Governance, and BIM for the Shipbuilding Industry
Here is the requested content:
- Master the implementation of advanced strategies in the Common Data Environment (CDE) to optimize collaboration and information management in naval projects.
- Learn to govern data effectively, ensuring the quality, security, and accessibility of information throughout the vessel lifecycle.
- Use Building Information Modeling (BIM) for the planning, design, construction, and maintenance of naval projects, achieving greater efficiency and cost reduction.
- Understand and apply the latest trends in the digitalization of the naval sector.
- Optimize the use of collaborative platforms for the comprehensive management of naval projects.
- Improve decision-making through real-time data analysis.
- Integrate data governance with BIM workflows.
- Implement CDE in complex naval projects.
including the management of suppliers and contractors.
5. Master's Degree in CDE, Data Governance and BIM Traceability: Transforming Naval Management
5. **Master’s Degree in CDE, Data Governance, and BIM Traceability: Transforming Naval Management**
- Master the fundamentals of data management and information governance, essential for strategic decision-making in the naval sector.
- Understand the concept of CDE (Common Data Environment) and its practical application in naval projects, facilitating collaboration and information sharing.
- Learn to implement the BIM (Building Information Modeling) methodology for the comprehensive management of naval projects, from design to construction and maintenance.
- Develop skills in data traceability throughout the project lifecycle, ensuring quality and transparency at every stage.
- Use specialized tools and software for data management, BIM modeling, and information analysis in the naval field.
- Apply the acquired knowledge in practical case studies and simulations.
- Analyze the impact of digital transformation on the naval sector and the opportunities offered by data management, CDE, and BIM.
- Learn to manage and lead work teams on naval projects that use cutting-edge information management technologies.
- Develop communication and presentation skills to effectively communicate the results of data analysis and BIM solutions.
- Understand the relevant regulations and standards for data management, CDE, and BIM in the naval field, ensuring legal compliance and quality.
of naval projects, acquiring relevant and practical experience.
6. Expert in CDE, Data Governance, and BIM: Driving Traceability in Shipbuilding
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 CDE, Data Governance and BIM Traceability
- Professionals with experience in the naval sector, including officers, non-commissioned officers, and civilian personnel who wish to expand their knowledge in the maritime field.
- Graduates in naval-related fields, such as Naval Engineering, Naval Sciences, Maritime Law, or areas related to port management and logistics.
- Individuals interested in developing skills in leadership, strategy, resource management, and maritime security, applicable to roles in the navy, shipping companies, or institutions related to the sector.
- Professionals seeking specialization in areas such as maritime cybersecurity, marine environmental protection, or the application of advanced technologies in navigation.
- 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 Introduction to Data Management in Naval Projects: Key Concepts
1.2 The Common Data Environment (CDE) and its Importance in Shipbuilding
1.3 Fundamentals of Data Governance: Principles and Benefits
1.4 Building Information Modeling (BIM) Applied to the Naval Industry: Overview
1.5 BIM Traceability: Concept and Applications in Naval Projects
1.6 Interrelationship between CDE, Data Governance, and BIM in the Naval Context
1.7 Relevant Standards and Regulations in Naval Data Management
1.8 Digital Workflows and Collaboration in Naval Projects
1.9 Essential Software and Tools for CDE, Data Governance, and BIM
1.10 Case Studies: Practical Examples of Successful Implementation
2.2 Introduction to CDE and its importance in naval projects
2.2 Principles of Data Governance: organization and management
2.3 Structure and standards for CDE in the naval sector
2.4 Document management and version control
2.5 Data security and protection in CDE
2.6 CDE tools and platforms for the naval industry
2.7 Introduction to BIM and its relationship with CDE
2.8 Benefits of integrating CDE and Data Governance
2.2 Introduction to BIM in shipbuilding
2.2 3D modeling and BIM model creation
2.3 Data integration in BIM models
2.4 Collaborative design and coordination in naval projects
2.5 Analysis and simulation in BIM models
2.6 Conflict detection and design optimization
2.7 BIM applications in the different project phases
2.8 BIM and its impact on naval efficiency and productivity
3.2 Traceability concepts in shipbuilding
3.2 Implementation of traceability in CDE and BIM
3.3 Naval Asset Lifecycle Management
3.4 Process Optimization and Cost Reduction
3.5 Data Analysis for Continuous Improvement
3.6 Integrating Traceability into Project Management
3.7 Use of Technologies for Traceability: RFID, QR Codes
3.8 Naval Optimization Case Studies
4.2 Advanced Strategies for CDE Implementation
4.2 Integrating BIM with Project Management Systems
4.3 Change Management and Advanced Version Control
4.4 Risk Analysis and Mitigation in Naval Projects
4.5 BIM and its Application in Modular Naval Construction
4.6 Simulation and Optimization of the Construction Process
4.7 Integration of Maintenance and Operation Data
4.8 Collaboration and Communication Strategies in Projects
5.2 Advanced Naval Project Management Methodologies
5.2 Integrating CDE, Data Governance, and BIM
5.3 Leadership and Team Management in Naval Projects
5.4 Risk Management and Control Quality
5.5 Data Analysis and Data-Driven Decision Making
5.6 Innovation Strategies and Process Optimization
5.7 Naval Asset Lifecycle Management
5.8 Successful Case Studies in Naval BIM and CDE Management
6.2 Fundamentals of Traceability in Shipbuilding
6.2 Integrating Traceability into the Project Lifecycle
6.3 Implementing Tools and Technologies for Traceability
6.4 Information and Knowledge Management in Naval Projects
6.5 Traceability Auditing and Control
6.6 Continuous Improvement and Process Optimization
6.7 Naval Supply Chain Management
6.8 Practical Cases of Traceability Implementation
7.2 BIM Applications in the Design and Construction Phases
7.2 Parametric Modeling and Generative Design
7.3 Multidisciplinary Coordination and Clash Detection
7.4 Optimizing the Construction Process
7.5 Integrating Construction and Operation Information
7.6 BIM and Sustainability in Construction Naval
7.7 Case Studies in Shipbuilding
7.8 BIM Project Management
8.2 Planning and Implementation of CDE and BIM
8.2 Data Structure and Workflow Design
8.3 Systems and Platform Integration
8.4 Staff Training and Development
8.5 Change Management and Resistance to Change
8.6 Progress Monitoring and Control
8.7 Best Practices and Lessons Learned
8.8 Implementing Traceability in the Naval Industry
8.2
3.3 CDE Fundamentals: Understanding the Common Data Environment in Naval Projects
3.2 Data Governance: Key Principles for Managing and Controlling Naval Information
3.3 BIM in Shipbuilding: Applications and Benefits of Information Modeling
3.4 CDE and BIM Integration: Optimized Workflows for Naval Projects
3.5 BIM Traceability: Tracking and Controlling Information Throughout the Project Lifecycle
3.6 Data Quality: Ensuring Information Accuracy and Reliability
3.7 Change Management: Controlling Modifications and Updates in Naval Projects
3.8 Collaboration: Tools and Strategies for Effective Communication in Projects
3.9 Process Optimization: Improving Efficiency through the Integration of CDE, Data, and BIM
3.30 Case Studies: Successful Applications of CDE, Data, and BIM in Naval Projects
4.4 Strategic Framework for the Implementation of CDE, Data Governance, and BIM
4.2 Assessment of the Specific Needs of the Naval Project
4.3 Development of a Detailed Implementation Plan
4.4 Integration of CDE with Existing Systems and Workflows
4.5 Data Governance Strategies for Naval Information Management
4.6 Application of BIM for Traceability in Shipbuilding
4.7 Design and Configuration of the Data Infrastructure
4.8 Change Management and Version Control in Naval Projects
4.9 Optimization of BIM Processes and Workflows
4.40 Evaluation of Return on Investment and Success Metrics
5.5 Introduction to CDE, Data Governance, BIM, and the Shipbuilding Industry
5.5 Fundamentals of Data-Driven Collaboration (CDE)
5.3 Principles of Data Governance: Quality, Security, Accessibility
5.4 BIM: Key Concepts and Applications in Naval Projects
5.5 BIM Traceability: Definition and Benefits in Shipbuilding
5.6 Digital Workflows and Industry Standards
5.7 CDE Tools and Platforms for Naval Projects
5.8 Data Integration: CDE, Data Governance, and BIM
5.9 Case Study: Implementation in Pilot Projects
5.50 Challenges and Opportunities in the Adoption of CDE and BIM
5.5 CDE Implementation Strategies for Naval Projects
5.5 Developing the Data Governance Plan
5.3 BIM Execution Plan (BEP) and its Importance
5.4 Selecting and Configuring CDE Platforms
5.5 Role Management and Permits in the CDE
5.6 BIM Integration with Project Management Systems
5.7 BIM Traceability Process in Shipbuilding
5.8 Measuring and Evaluating Implementation Performance
5.9 Case Studies: Successful Implementations in the Naval Sector
5.50 Common Challenges and Best Practices
3.5 Process Optimization in Naval Projects with CDE and BIM
3.5 Analysis and Improvement of BIM Workflows
3.3 Use of Data for Decision Making
3.4 Change Management and Version Control in the CDE
3.5 BIM Simulation and Analysis for Optimization
3.6 Integration of Manufacturing and Construction Data
3.7 Cost Reduction and Efficiency Improvement in Projects
3.8 Data Analysis and Visualization Tools
3.9 Case Studies: Optimization of Naval Projects
3.50 Measuring the ROI of Optimization
4.5 Advanced CDE Strategies and Data Governance
4.5 Integrating BIM with ERP Systems and Other Corporate Systems
4.3 Predictive and Prescriptive Data Analysis in Shipbuilding
4.4 Implementing Digital Twins in Naval Projects
4.5 Cybersecurity and Data Protection in CDE
4.6 Innovation Management and New Technologies
4.7 Collaboration with Suppliers and Subcontractors
4.8 Parametric Modeling and Generative Design
4.9 Case Studies: Advanced Strategies in Action
4.50 Future Trends and Adapting to Change
5.5 Leadership in Naval Digital Transformation
5.5 ​​Developing a Strategic Vision for BIM and CDE Implementation
5.3 Change Management and Resistance to Change
5.4 Developing Leadership Skills and Effective Communication
5.5 ​​Managing Complex BIM Projects
5.6 Managing Risks and Opportunities
5.7 Development of Data Governance Policies and Procedures
5.8 Performance Measurement and Continuous Improvement
5.9 Case Studies: Successful Leadership in Naval Digital Transformation
5.50 Strategies for Sustainability and Long-Term Success
6.5 Fundamentals of BIM Traceability in Shipbuilding
6.5 Creation and Management of a Robust Traceability System
6.3 Integration of Traceability with the CDE
6.4 Use of Identification Technologies (RFID, QR codes, etc.)
6.5 Auditing and Quality Control with Traceability
6.6 Supply Chain Optimization with Traceability
6.7 Integration of Traceability into Workflows
6.8 Asset Management and Maintenance with Traceability
6.9 Case Studies: Traceability in Shipbuilding
6.50 Challenges and Future Trends in the Traceability
7.5 BIM Software Selection for Naval Projects
7.5 Advanced 3D Modeling and Visualization Techniques
7.3 Coordination and Clash Detection in BIM
7.4 Development of Naval Component Families
7.5 Design of Naval Structures in BIM
7.6 Structural Simulation and Analysis in BIM
7.7 BIM Integration with Other Disciplines (Electrical, HVAC, etc.)
7.8 Generation of Documentation and Drawings from BIM
7.9 Case Studies: BIM Implementation in Specific Projects
7.50 Trends and Future of BIM Implementation in Shipbuilding
8.5 Detailed Planning of CDE, Data, and BIM Implementation
8.5 Selection of Appropriate Tools and Platforms
8.3 Systems and Data Integration
8.4 Development of Efficient Workflows
8.5 Change Management and Training Personnel
8.6 Implementation of Data Governance Processes
8.7 Measuring and Monitoring Progress
8.8 Continuous Improvement and Adaptation to New Technologies
8.9 Case Study: Comprehensive Implementation in a Naval Project
8.50 Keys to Long-Term Success and Sustainability
8.6 Implementation of Data Governance Processes
8.7 Measuring and Monitoring Progress
8.8 Continuous Improvement and Adaptation to New Technologies
8.9 Case Study: Comprehensive Implementation in a Naval Project
8.50 Keys to Long-Term Success and Sustainability
6.6 Fundamentals of CDE: Concepts and Benefits in Naval Projects.
6.2 Introduction to Data Governance: Principles and Best Practices.
6.3 BIM: Basic Concepts and Application in Shipbuilding.
6.4 The Intersection of CDE, Data Governance, and BIM: Synergies and Advantages.
6.5 Standards and Regulations: Relevant to Data Management in Naval Projects.
6.6 Case Studies: Examples of Successful CDE and BIM Implementation.
6.7 Essential Workflows in Naval Projects: Documents, Data, BIM Models.
6.8 CDE Tools and Platforms: Introduction and Comparison.
6.9 Introduction to BIM Traceability: Tracking Information in Naval Projects.
6.60 Getting Started: Implementing CDE and BIM in Small Projects.
2.6 Analysis of the Current Situation: Needs and Objectives Assessment.
2.2 Developing the CDE strategy: defining roles and responsibilities.
2.3 Planning BIM implementation: selecting software and standards.
2.4 Designing the data structure and data governance.
2.5 Data migration: strategies and best practices.
2.6 Integrating BIM with CDE: modeling and information management.
2.7 Change management: training and development.
2.8 Key performance indicators (KPIs): monitoring and evaluating progress.
2.9 Case study: Successful implementation of BIM and CDE in the naval sector.
2.60 Maintaining and continuously improving the strategy.
3.6 Identifying bottlenecks in current naval processes.
3.2 Optimizing workflow using CDE and BIM.
3.3 Integrating design, construction, and operation information.
3.4 Data analysis: identifying areas for improvement. 3.5 Data-driven decision-making: implementation of key indicators.
3.6 Asset management: lifecycle optimization.
3.7 Cost reduction: resource optimization.
3.8 Efficiency improvement: task automation.
3.9 Case studies: examples of naval optimization.
3.60 Tools and software for naval optimization.
4.6 Research and selection of advanced technologies for CDE and BIM.
4.2 Implementation of digital twins: simulation and data analysis.
4.3 Integration of artificial intelligence (AI) into data management.
4.4 Use of machine learning to predict failures and optimize performance.
4.5 Application of predictive analytics in naval project management.
4.6 Cybersecurity strategies for data protection in the naval sector.
4.7 Implementation of augmented reality (AR) and virtual reality (VR) for inspection and maintenance. 4.8 Development of information models for asset lifecycle management.
4.9 Case studies: advanced strategies in the naval sector.
4.60 The future of CDE, data, and BIM in the naval industry.
5.6 Analysis of existing BIM data management and processes.
5.2 Development of complex project management strategies.
5.3 Implementation of advanced CDE: permissions and access management.
5.4 Data governance: creation of policies and procedures.
5.5 Integration of BIM traceability into all processes.
5.6 Risk management: identification and mitigation of risks in naval projects.
5.7 Change management: planning and execution.
5.8 Leadership and team management: collaboration and communication.
5.9 Quality assessment and control: ensuring the quality of BIM data and models. 5.60 Case Studies: Application of Advanced Naval Management in Real-World Projects
6.6 Fundamentals of Traceability in Shipbuilding: Importance and Benefits
6.2 Process Design for Data Capture and Management
6.3 Use of Standards and Protocols for Traceability
6.4 Implementation of Real-Time Monitoring Systems
6.5 Integration of Data from Different Sources: Design, Construction, and Operation
6.6 Audits and Quality Control: Ensuring Data Accuracy
6.7 Change Management: Control and Monitoring
6.8 Data Analysis: Reports and Dashboards
6.9 Case Study: Successful Implementation of Traceability in Shipbuilding
6.60 The Future of Traceability in the Shipbuilding Industry
7.6 Assessment of Specific Naval Project Needs
7.2 Development of a BIM Implementation Plan 7.3 Designing efficient workflows.
7.4 Selecting specific software and tools.
7.5 Integrating design, construction, and maintenance data.
7.6 Change management: training and development.
7.7 Creating a collaborative environment.
7.8 BIM project management: cost, schedule, and quality control.
7.9 Case studies: Real-world applications of BIM in shipbuilding.
7.60 Continuous improvement: optimizing and adapting the strategy.
8.6 Planning the implementation of CDE, data, and BIM.
8.2 Designing the data architecture: models and databases.
8.3 Systems integration: design, construction, and operation.
8.4 Change management: training and development.
8.5 Information management: creating policies and procedures.
8.6 Data access control and security.
8.7 Asset lifecycle management.
8.8 Quality control and information assurance.
8.9 Case studies: Comprehensive implementation in naval projects.
8.60 Continuous improvement and optimization of implementation.
7.7 Introduction to CDE and its Foundations in Shipbuilding.
7.2 Data Governance: Principles and Applications in the Naval Context.
7.3 BIM: Key Concepts and Application in Naval Projects.
7.4 BIM Traceability: Importance and Benefits in the Naval Industry.
7.7 Interrelationship of CDE, Data Governance, BIM, and Traceability in Naval Projects.
7.6 Relevant Regulations and Standards in the Naval Sector.
7.7 Case Studies: Application Examples in Naval Projects.
7.8 Key Tools and Technologies for CDE, Data Governance, and BIM.
7.9 Information Management: Creation, Storage, and Sharing Process.
7.70 Challenges and Opportunities in the Implementation of CDE, Data Governance, and BIM.
2.7 Analysis of the Current Situation and Specific Needs of the Naval Sector.
2.2 Definition of Objectives and Strategies for BIM Implementation.
2.3 Selection and Configuration of Appropriate CDE Platforms.
2.4 Development of a Data Governance Plan: Roles and Responsibilities.
2.7 Implementation of BIM Models for Different Phases of the Naval Project.
2.6 Integration of BIM Traceability into Design and Construction Processes.
2.7 Change Management: Training and Adoption by Teams.
2.8 Key Performance Indicators (KPIs) for Monitoring Progress.
2.9 Integration of BIM with Existing Management Systems.
2.70 Evaluation of Implementation and Continuous Improvement.
3.7 Optimization of Naval Design and Construction Processes with CDE and BIM. 3.2 Reduction of Costs and Delivery Times through BIM Implementation.
3.3 Improved Collaboration and Communication Among Teams.
3.4 Efficient Management of Project Documentation and Information.
3.7 Early Detection and Resolution of Design Conflicts.
3.6 Optimization of Naval Project Planning and Scheduling.
3.7 Quality Control and Verification of Compliance with CDE and BIM.
3.8 Life Cycle Cost Analysis of Naval Assets.
3.9 Implementation of Lean Construction Methodology.
3.70 Success Stories and Lessons Learned in Naval Projects.
4.7 Development of CDE Implementation Strategies.
4.2 Data Governance Strategies: Security, Integrity, and Accessibility. 4.3 BIM: Advanced Strategies for Naval Design and Construction.
4.4 Parametric Modeling and Generative Design in Naval Projects.
4.7 Implementation of Augmented Reality and Virtual Reality in the Naval Sector.
4.6 Integration of BIM with Geographic Information Systems (GIS).
4.7 Sustainability and Energy Efficiency Strategies in Naval Design.
4.8 Risk Analysis and Mitigation in Naval Projects.
4.9 Collaboration and Communication Strategies with Suppliers and Clients.
4.70 Future Trends in CDE, Data Governance, and BIM for the Naval Industry.
7.7 Leadership in Naval Project Management with CDE and BIM.
7.2 Advanced Data Governance and Quality Control Strategies.
7.3 Naval Asset Lifecycle Management. 7.4 Strategic Project Planning with BIM.
7.7 Resource Optimization and Cost Reduction.
7.6 Implementation of Agile Methodology in Shipbuilding.
7.7 Risk Management and Regulatory Compliance in Naval Projects.
7.8 Data Analysis and Decision Making Based on BIM.
7.9 Development of a Data-Driven Culture within the Organization.
7.70 Implementation of a Comprehensive CDE Platform.
6.7 Fundamentals of BIM Traceability in Shipbuilding.
6.2 Integration of Traceability into the Design Process.
6.3 Traceability in Material and Component Management.
6.4 Real-Time Construction Monitoring.
6.7 Change Control and Version Management.
6.6 Verification of Conformity and Quality Control. 6.7 Documentation and Digital Archiving
6.8 Data Analysis and Traceability Report Generation
6.9 Integration with Maintenance Management Systems
6.70 Continuous Improvement of Traceability Processes
7.7 BIM Design and Modeling for Shipbuilding
7.2 BIM Implementation in Project Phases
7.3 Generation of 3D and 2D Documentation
7.4 BIM Simulation and Analysis
7.7 BIM Information Management
7.6 BIM Collaboration and Coordination
7.7 BIM Quality Control and Verification
7.8 BIM Integration with Traceability
7.9 BIM Implementation in Construction
7.70 BIM Implementation Case Studies
8.7 Selection and Implementation of a Comprehensive CDE Platform
8.2 Workflow and Role Design in the CDE
8.3 Data and Metadata Management in the CDE
8.4 Implementation of Standards and Protocols in the CDE
8.7 Information Traceability in the CDE
8.6 Integration of the CDE with BIM and Other Systems
8.7 Quality Control and Version Management in the CDE
8.8 Data Security and Protection in the CDE
8.9 Process Automation in the CDE
8.70 Optimization of the CDE for Decision Making
8.8 Fundamentals of CDE: Structure and Functionality for Naval Projects
8.8 Data Governance: Principles and Application in the Naval Industry
8.3 BIM: Modeling and its Integration with CDE and Data Governance
8.4 CDE Implementation: Strategies and Best Practices
8.5 Traceability in Naval Construction: Concepts and Applications
8.6 Data Management in Naval Projects: Quality and Security
8.7 Integration of CDE, Data, and BIM: Workflows and Examples
8.8 Tools and Software for CDE, Data, and BIM in the Naval Industry
8.8 Case Studies: Success Stories in Naval Traceability
8.80 Challenges and Future Trends in CDE, Data, and BIM for Naval Construction
9.9 Introduction to Naval Engineering and Project Management
9.9 Key Concepts of CDE: Structure, Functions, and Benefits
9.3 Data Governance: Principles and Applications in Naval Projects
9.4 BIM Traceability: Fundamentals and Benefits in Shipbuilding
9.5 Integration of CDE, Data Governance, and BIM: Overview
9.9 Strategic Planning for the Implementation of CDE in Naval Projects
9.9 Design and Implementation of an Effective Data Governance System
9.3 Integration of BIM into the Naval Workflow: Best Practices
9.4 BIM Traceability Management: Documentation, Control, and Auditing
9.5 Case Studies: Successful Implementation in the Naval Sector
3.9 Process Optimization in Naval Projects: CDE and BIM Approach
3.9 Data Analysis and Management for Decision Making
3.3 Tools and Technologies for Project Optimization
3.4 Improvement Continuous Improvement and KPIs in Naval Project Management
3.5 Return on Investment (ROI) Evaluation in CDE and BIM
4.9 Advanced CDE Strategies: Collaboration, Interoperability, and Security
4.9 Advanced Data Governance: Quality, Integrity, and Information Security
4.3 BIM for Simulation and Analysis: Design, Construction, and Operation
4.4 Integration of Emerging Technologies: IoT, Big Data, and Artificial Intelligence
4.5 Risk Management and Mitigation in Naval Projects
5.9 Naval Project Management with a BIM Approach: Leadership and Strategy
5.9 CDE and Data Governance in the Design Phase: Efficiency and Collaboration
5.3 BIM in the Construction Phase: Quality Control and Cost Reduction
5.4 Management of the Operation and Maintenance Phase: Lifecycle Optimization
5.5 ​​Success Stories and Trends in the Shipbuilding Industry
6.9 Fundamentals of Traceability in Shipbuilding
6.9 CDE as a Platform for Traceability: Integration and Data Flow
6.3 BIM for Traceability: 3D Modeling, Documentation, and Tracking
6.4 Tools and Technologies for Traceability: RFID, QR Codes, and Sensors
6.5 Quality Control and Traceability Assurance
7.9 Specialization in BIM for Shipbuilding: Modeling and Detailing
7.9 CDE and Information Management in Shipbuilding
7.3 BIM Collaboration: Design, Construction, and Project Delivery
7.4 Change Control and Version Management in BIM and CDE
7.5 Case Studies: Application of BIM and CDE in Shipbuilding
8.9 Detailed Planning for the Implementation of CDE and BIM
8.9 Configuration and Customization of CDE Platforms
8.3 Integration of BIM with the Workflow Existing
8.4 Training and Adoption: Strategies for Success
8.5 Monitoring, Evaluation, and Continuous Improvement
**Module 1: Mastering Data Enforcement, Data Governance, and BIM Traceability for Naval Projects**
1.1 Fundamentals of Data Management in Shipbuilding
1.2 Introduction to Data Enforcement: Concepts and Benefits in Naval Projects
1.3 Data Governance: Principles and Applications in the Naval Sector
1.4 BIM Traceability: Concepts, Importance, and Application in Naval Design
1.5 Integrating Data Enforcement, Data Governance, and BIM: An Integrated Approach
1.6 Document Management and Version Control in Naval Projects
1.7 BIM Modeling for Shipbuilding: Creating and Managing 3D Models
1.8 The Importance of Standards and Protocols in BIM Implementation
1.9 Practical Applications of Data Enforcement, Data Governance, and BIM in Naval Projects 1.10 Case Study: Best Practices in BIM Implementation in Naval Projects
**Module 2: Strategic Implementation of CDE, Data Governance, and BIM Traceability in the Naval Sector**
2.1 Strategic Planning for the Implementation of CDE and Data Governance
2.2 Definition of Roles and Responsibilities in Data Management
2.3 Selection and Configuration of Appropriate CDE Platforms
2.4 Development of a Detailed BIM Implementation Plan
2.5 Integration of BIM with Project Management Systems (PMIS)
2.6 Implementation of BIM Traceability in the Phases of a Naval Project
2.7 Change Management and Quality Control in BIM Models
2.8 Training and Development of Personnel in the Use of CDE and BIM 2.9 Monitoring and Evaluation of Implementation Success
2.10 Risk Analysis and Problem Mitigation in Implementation
**Module 3: Naval Optimization: CDE, Data Governance, and BIM for Project Excellence**
3.1 Process Optimization in Shipbuilding Using CDE and BIM
3.2 Improved Collaboration and Communication with CDE and BIM
3.3 Design and Engineering Optimization with BIM
3.4 Cost and Delivery Time Reduction with CDE and BIM
3.5 Efficient Project Information Management with CDE
3.6 Data Analysis for Decision-Making in Naval Projects
3.7 Use of BIM for Project Simulation and Analysis
3.8 Implementation of Lean Methodologies in Shipbuilding with BIM 3.9 Quality Improvement and Error Reduction with CDE and BIM.
3.10 Case Study: Optimization of a Specific Naval Project Using CDE and BIM.
**Module 4: Advanced Strategies in CDE, Data Governance, and BIM for the Naval Industry**
4.1 Integration of BIM and CDE with Manufacturing and Assembly Systems.
4.2 Implementation of Augmented Reality and Virtual Reality in Naval Projects.
4.3 Use of Artificial Intelligence and Machine Learning in Data Management.
4.4 Development of Dashboards and Advanced Reports for Decision Making.
4.5 Safety Management in Naval Projects with BIM.
4.6 Optimizing Sustainability in Shipbuilding with BIM.
4.7 Integration of BIM with Product Lifecycle Management (PLM) Systems. 4.8 Strategies for Asset Management and Maintenance with BIM.
4.9 Implementation of Digital Twins in Shipbuilding.
4.10 Future Trends in CDE, Data Governance, and BIM for the Naval Industry.
**Module 5: Mastery in CDE, Data Governance, and BIM Traceability: Transforming Naval Management**
5.1 Advanced Review of the Fundamentals of CDE, Data Governance, and BIM.
5.2 Advanced Strategies for Naval Project Lifecycle Management.
5.3 Implementation of Key Performance Indicators (KPIs) in CDE and BIM.
5.4 Risk Management and Regulatory Compliance in Naval Projects.
5.5 Strategies for Multidisciplinary Collaboration in Naval Projects.
5.6 Implementation of Digital Twins for Lifecycle Optimization.
5.7 Development of Digital Transformation Strategies in Shipbuilding.
5.8 Leadership and Change Management in the Implementation of CDE and BIM.
5.9 Analysis of Success Stories in the Implementation of CDE and BIM Worldwide.
5.10 Final Project: Development of a Comprehensive Implementation Plan for CDE, Data Governance, and BIM.
**Module 6: Expert in CDE, Data Governance, and BIM: Driving Traceability in Shipbuilding**
6.1 In-depth Study of the Fundamentals of BIM Traceability.
6.2 Implementation of BIM Traceability in the Design and Construction Phases.
6.3 Integration of BIM Traceability with Quality Management Systems.
6.4 Use of BIM Traceability for Change Management and Version Control. 6.5 Implementation of BIM Traceability for Maintenance and Operations.
6.6 Development of Key Performance Indicators (KPIs) for BIM Traceability.
6.7 Applications of BIM Traceability in Risk Management and Regulatory Compliance.
6.8 Design and Implementation of a BIM Traceability Strategy.
6.9 Case Studies of BIM Traceability in Successful Naval Projects.
6.10 Presentation and Defense of the Final Project: BIM Traceability Implementation Plan.
**Module 7: Specialization in CDE, Data Governance, and BIM: Transforming Shipbuilding with Traceability**
7.1 In-depth Analysis of Standards and Regulations in Shipbuilding.
7.2 Design and Management of an Advanced CDE for Data Traceability.
7.3 Development of Data Governance Strategies for Naval Projects.
7.4 Implementation of BIM Traceability in Naval Design and Manufacturing Projects.
7.5 Integration of Traceability Data with Asset Management Systems.
7.6 Optimizing Traceability for Naval Maintenance and Repair.
7.7 Design of Dashboards and Advanced Reports for Traceability.
7.8 Safety and Quality Management Using Traceability.
7.9 Case Studies: Best Practices in Traceability Implementation in the Naval Industry.
7.10 Final Project: Design and Implementation of a BIM Traceability System for a Specific Naval Project.
**Module 8: Comprehensive Implementation of CDE, Data Governance, and BIM for Traceability in the Naval Industry**
8.1 Assessment of Traceability Needs and Objectives in Naval Projects.
8.2 Design of the CDE Architecture and Data Infrastructure.
8.3 Definition of Data Governance Policies and Procedures.
8.4 Implementation of BIM Traceability in the Design, Construction, and Operation Phases.
8.5 Integration of Traceability with Project Management Systems and ERP.
8.6 Development of a Change Management Plan for Traceability Implementation.
8.7 Use of Traceability for Maintenance Optimization and Asset Management.
8.8 Implementation of Traceability to Improve Safety and Quality.
8.9 Measuring the Return on Investment (ROI) of Traceability in Naval Projects.
8.10 Final Presentation and Defense of the Traceability Implementation Project in a Real Naval Project.
**Final Project — Naval BIM Traceability: Strategic Implementation**
9.1 Definition of the Scope and Objectives of the BIM Traceability Project.
9.2 Selection and Configuration of the CDE and BIM Tools.
9.3 Development of the BIM Model and Definition of the Data Structure.
9.4 Implementation of BIM Traceability in the Project Phases.
9.5 Integration of BIM Traceability with Management Systems.
9.6 Testing and Validation of the Implemented BIM Traceability.
9.7 Training and Development of Personnel in the Use of BIM Traceability.
9.8 Monitoring and Control of BIM Traceability in the Project.
9.9 Performance Evaluation and Continuous Improvement of BIM Traceability.
9.10 Project Documentation and Presentation of Results.
- 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
- Naval Optimization: CDE/BIM for efficient design and construction.
- Data Governance: Implementation of traceability strategies.
- BIM Traceability: Integration into the naval project lifecycle.
- Risk Analysis: Application of CDE for mitigation.
- Naval Optimization: CDE/BIM for efficient design and construction.
- Data Governance: Implementation of traceability strategies.
- BIM Traceability: Integration into the naval project lifecycle.
- Risk Analysis: Application of CDE for mitigation.
- CDE & BIM Integration: Unified platform for managing data and 3D models of vessels.
- Data Governance: Definition of roles, permissions, and workflows for traceability.
- BIM Traceability: Tracking of components, materials, and processes from design to delivery.
- Simulation & Analysis: Design and performance optimization with BIM tools and data analysis.
- Naval BIM Management: Centralized CDE; data governance; design-to-construction traceability.
- Risk Analysis: BIM risk assessment; mitigation plan; regulatory compliance.
- CDE Optimization: Workflow implementation; process automation; continuous improvement.
- BIM Audit: Data verification; model validation; conformance analysis.
- Naval BIM Traceability: Implementation of CDE, Data Governance, and BIM for optimizing ship design and construction.
- Advanced Simulation: Integration of CFD and FEA for optimizing hulls and naval structures.
- Data Governance: Development of a data management system to improve efficiency and decision-making in naval projects.
- Comprehensive CDE: Implementation of a common data environment for the complete lifecycle of naval projects.
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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