Course on Port Design in Urban Areas

About our

The Course on Port Design in Urban Areas explores the planning, design, and development of port infrastructure in urban environments, integrating principles of urbanism, logistics, and sustainability. It focuses on optimizing spaces for maritime transport, considering aspects such as connectivity, urban mobility, and port-city integration. The course addresses the use of simulation and modeling tools for traffic management and the design of port facilities, emphasizing minimizing environmental impact and promoting green ports. Participants will gain practical knowledge in port project management, including risk assessment, financial planning, and compliance with maritime regulations. The application of innovative technologies in port design and operation, such as automation and digitalization, is promoted to improve efficiency and safety. This training prepares professionals for roles such as urban planners, port engineers, project managers, and logistics consultants, equipping them to lead sustainable port development projects.

Course on Port Design in Urban Areas

299 $

Competencies and results

What you will learn

1. Design and Planning of Urban Ports: A Comprehensive Course

  • Understand the conceptualization and design of urban ports, from initial planning to implementation.
  • Analyze the key factors influencing the location and development of urban ports, including economic, social, and environmental aspects.
  • Evaluate different urban port design options, considering the necessary infrastructure, facilities, and services.
  • Apply urban planning tools and techniques to integrate ports into the existing urban fabric.
  • Study the relevant regulations and standards for the design and construction of urban ports, including safety and sustainability.

2. Mastery of Urban Port Design: Planning, Structures and Operations

## What Will You Learn in Urban Port Design?

  • Fundamentals of urban port planning, including needs analysis, feasibility studies, and zoning.
  • Design principles for port structures, encompassing wharves, breakwaters, dikes, and other key infrastructure.
  • Mastery of port operations, from cargo handling and unloading to optimizing the flow of goods and people.
  • Knowledge of port integration within the urban environment, considering aspects such as environmental impact, accessibility, and connectivity.
  • Tools and techniques for simulating and modeling port systems, enabling the evaluation of different scenarios and informed decision-making.
  • Legislation and regulations relevant to the design and operation of urban ports, including safety, environmental, and land-use planning aspects.
  • Port project management, from the design phase to construction and commissioning, including cost control and deadlines.
  • Risk analysis and security measures in port environments, encompassing protection against threats, accident prevention, and emergency management.

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. Mastery of Urban Port Design: Key Concepts and Practical Applications

  • Fundamentals of Port Urban Design: Explore the essential principles that govern port planning and design in urban environments, including integration with the city, sustainability, and resilience.
  • Urban Context Analysis: Learn to assess and understand the urban context in which the port is located, considering factors such as population density, existing infrastructure, urban planning regulations, and community needs.
  • Port Infrastructure Planning and Design: Delve into the design of docks, terminals, storage areas, and other port infrastructure, addressing aspects such as cargo capacity, operational efficiency, and security.
  • Port-City Integration: Discover strategies for integrating the port with the city, including the design of public spaces, urban mobility, waste management, and the mitigation of environmental and social impacts.
  • Sustainability and Resilience: Explore approaches to designing ports Sustainable and resilient, considering energy efficiency, emissions reduction, climate change adaptation, and risk management.

    Design Tools and Technologies: Familiarize yourself with design tools and technologies, such as CAD/BIM software, geographic information systems (GIS), and simulations, to optimize the design and management of port projects.

    Case Studies and Practical Applications: Analyze case studies of successful urban ports worldwide and apply the knowledge gained in practical exercises and design projects.

5. Strategies for the Design and Management of Urban Ports: A Practical Approach

5. Strategies for the Design and Management of Urban Ports: A Practical Approach

  • Understand the fundamentals of port urban planning, including port-city integration.
  • Analyze current trends in urban port design, such as sustainability and energy efficiency.
  • Evaluate the environmental and social challenges associated with port development in urban areas.
  • Apply tools and techniques for the effective management of port operations, including logistics and transportation.
  • Develop strategies for stakeholder engagement and public communication in port projects.
  • Study case studies of successful urban ports and learn from international best practices.
  • Design improvement proposals for existing ports and sustainable port development projects.
  • Become familiar with the regulations and standards applicable to port design and management urban ports.
  • Explore the use of innovative technologies, such as automation and digitalization, in urban ports.

    Identify opportunities for economic growth and job creation in the context of urban port development.

6. Urban Port Design: Planning, Design and Sustainability

  • Understand the fundamental principles of urban planning applied to port environments.
  • Analyze the specific needs and challenges of urban ports, considering economic, social, and environmental factors.
  • Evaluate the interaction between the port and the city, including transportation, logistics, and connectivity.
  • Study the different typologies of urban ports and their distinctive characteristics.
  • Explore urban design strategies to optimize port space and its integration with the city.
  • Learn about the management of port infrastructure, including docks, terminals, and storage areas.
  • Analyze the aspects related to environmental sustainability in the design and operation of urban ports.
  • Know the relevant regulations and standards for port design and construction.
  • Develop skills in the use of design and modeling tools for port planning.
  • Study case studies of successful urban ports and their design approaches.

Who this program is for:

Course on Port Design in Urban Areas

  • Civil engineers, architects, urban planners, and professionals in disciplines related to urban design and planning.
  • Public officials and technicians from government institutions involved in the management and development of coastal and port areas.
  • Professionals from engineering, consulting, and construction companies specializing in port and urban infrastructure.
  • Individuals interested in the sustainable development of coastal cities and port-city integration.
  • 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.

Module 1 — Introduction to Urban Port Design

1.1 Importance and Context of Urban Ports

1.2 Functions and Main Components of an Urban Port

1.3 Legal Framework and Regulations in Port Design

1.4 Sustainability and Ecological Design in Urban Ports

1.5 Case Studies: Examples of Successful Urban Ports

1.6 Principles of Urban Planning and their Integration with the Port

1.7 Risk and Security Analysis in Port Design

1.8 Emerging Technologies in Urban Ports

1.9 Introduction to Port Modeling and Simulation

1.10 Overview of the Urban Port Design Process

2.2 Fundamental Principles of Urban Port Planning

2.2 Site Analysis and Selection of Optimal Locations

2.3 Feasibility and Economic Viability Studies

2.4 Conceptual Design of Port Infrastructure

2.5 Integration with the Urban Environment: Connectivity and Accessibility

2.6 Design of the Land-Sea Interface Zone

2.7 Environmental Considerations and Sustainability in the Design

2.8 Modeling and Simulation of Port Traffic

2.9 Cost Estimation and Preliminary Budget

2.20 Presentation and Evaluation of the Conceptual Design

3.3 Introduction to Urban Ports and Their Importance

3.2 Historical Evolution of Urban Port Design

3.3 The Role of Urban Ports in Economic and Social Development

3.4 Port-City Interrelationship: Challenges and Opportunities

3.5 Types of Urban Ports and Their Characteristics

3.6 Key Stakeholders and Their Interests

3.7 Basic Concepts of Hydrology and Oceanography

3.8 Essential Terminology in Port Design

2.3 Analysis of the Urban Context and Its Influence

2.2 Definition of Project Objectives and Scope

2.3 Feasibility Study and Market Analysis

2.4 Conceptual Design: Alternatives and Selection of the Best Option

2.5 Land Use Planning and Zoning

2.6 Design of the Port-City Interface: Access and Connectivity

2.7 Environmental and Social Impact: Preliminary Assessment

2.8 Presentation and Communication of the Conceptual Design

3.3 Design of Quays and Berths: Types and Structures

3.2 Design 3.3 Design of breakwaters and coastal protection systems

3.4 Design of cargo storage and handling areas

3.5 Design of internal transport and access systems

3.6 Design of port service facilities: power, water, etc.

3.6 Design of Passenger and Cruise Ship Facilities

3.7 Dredging and Sediment Management Design

3.8 Geotechnical and Structural Considerations

4.3 Port Operations Planning

4.2 Cargo Loading and Unloading Management

4.3 Maritime and Land Traffic Management

4.4 Optimization of Operational Efficiency

4.5 Port Logistics and Supply Chain

4.6 Port Security Management

4.7 Information and Communication Technologies in Ports

4.8 Key Performance Indicators (KPIs)

5.3 Environmental Impact Assessment of the Port

5.2 Sustainable Port Design: Strategies and Technologies

5.3 Waste and Pollution Management in Ports

5.4 Use of Renewable Energy in Ports

5.5 Climate Change and Resilience Considerations

5.6 Marine Fauna and Flora Study

5.7 Environmental Certifications and Sustainability Standards

5.8 Development of Environmental Management Plans

6.3 Legal and Regulatory Framework for Port Design

6.2 Applicable National and International Regulations

6.3 Required Permits and Licenses

6.4 Contracting and Execution of Port Projects

6.5 Civil Liability and Insurance

6.6 Legal Risk Management

6.7 Litigation and Arbitration in the Port Sector

6.8 Regulatory Compliance

7.3 Analysis of Case Studies of Successful Urban Ports

7.2 Case Studies of Urban Ports Facing Challenges

7.3 Design and Planning of Urban Ports in Different Geographical Contexts

7.4 Application of Design and Planning Methodologies

7.5 Simulation and Modeling of Port Operations

7.6 Evaluation of Profitability and Economic Viability

7.7 Use of Specialized Port Design Software

7.8 Presentation of Projects and Results

8.3 Trends in the Design and Development of Urban Ports

8.2 The Impact of Digitalization and Automation

8.3 Smart Ports and the Internet of Things (IoT)

8.4 The Role of Alternative Fuels and Electrification

8.5 Challenges of Climate Change and Port Resilience

8.6 The Evolution of Urban Planning and Port-City Integration

8.7 The Future of Logistics and Maritime Transport

8.8 Innovation and New Technologies in the Port Sector

4.4 Introduction to Urban Port Design: Objectives and Scope

4.2 Basic Principles of Port Planning and Design

4.3 Types of Urban Ports and Their Functions

4.4 Key Elements of Port Design: Quays, Storage Areas, Access

4.5 Port-City Interaction: Impacts and Opportunities

4.6 Design Considerations: Capacity, Safety, Efficiency

4.7 International Standards and Regulations in Port Design

4.8 Examples of Successful Urban Port Designs

4.9 Tools and Software for Port Design

4.40 The Future of Urban Port Design: Trends and Challenges

2.4 Selecting the Location of the Urban Port: Key Factors

2.2 Analysis of the Urban Environment: Population, Economic Activities, Transportation

2.3 Market Study and Port Demand Analysis

2.4 Analysis of Land Capacity and Environmental Constraints

2.5 Environmental Impact Assessment (EIA) and Mitigation

2.6 Port-City Integration: Urban Design and Access
2.7 Accessibility Considerations: Land, Sea, and Air

2.8 Internal and External Port Transport Planning

2.9 Risk and Security Assessment of the Location

2.40 Case Studies of Location and Urban Environment Analysis

3.4 Design of Quays and Berth Structures: Types and Characteristics

3.2 Design of Cargo Storage and Handling Areas

3.3 Design of Access Systems: Roads, Railways, and Canals

3.4 Design of Service Facilities: Energy, Water, Communications

3.5 Selection of Port Equipment: Cranes, Conveyors, Vehicles

3.6 Design of Security and Access Control Systems

3.7 Design of Infrastructure for Different Types of Cargo: Containers, Bulk Cargo, Liquids

3.8 Design Considerations: Durability, Maintenance, and Cost

3.9 Design of Infrastructure for Sustainability and Energy Efficiency

3.40 Case Studies of Port Infrastructure Design

4.4 Port Operations Planning: Processes and Flows 4.2 Cargo Management: Reception, Storage, Handling, and Dispatch

4.3 Fleet Management and Vessel Scheduling

4.4 Port Security and Access Control Management

4.5 Use of Information and Communication Technologies (ICT) in Port Operations

4.6 Key Performance Indicators (KPIs) in Port Management

4.7 Human Resource Management and Staff Training

4.8 Supply Chain Management and Port Logistics

4.9 Risk Analysis and Contingency Planning in Port Operations

4.40 Case Studies of Port Operation and Management Strategies

5.4 Sustainability in Port Design: Principles and Objectives

5.2 Environmental Impact of Urban Ports: Pollution and Noise

5.3 Environmental Mitigation Strategies: Emission and Waste Reduction

5.4 Use of Renewable Energy in Urban Ports

5.5 Green Port Design: Eco-efficiency and Sustainability

5.6 Framework Environmental regulations: international laws and regulations

5.7 Port sustainability certifications and standards

5.8 Corporate social responsibility (CSR) in the port sector

5.9 Sustainability case studies and regulatory framework

5.40 Challenges and opportunities in port sustainability

6.4 Analysis of successful urban port case studies

6.2 Design and planning of new urban ports

6.3 Remodeling and expansion of existing ports

6.4 Technical and economic feasibility studies

6.5 Design of specialized terminals: cruise ships, containers, bulk cargo

6.6 Risk and security assessment in urban ports

6.7 Optimization of operational efficiency and cost management

6.8 Implementation of innovative technologies in urban ports

6.9 Design of climate-resilient ports

6.40 Lessons learned and best practices in port design

7.4 Trends in urban port design: digitalization and Automation

7.2 Smart Ports: Information and Communication Technologies (ICTs)

7.3 The Impact of Climate Change on Port Design

7.4 Designing Resilient Ports: Adaptation and Mitigation

7.5 Sustainability and the Circular Economy in Port Design

7.6 The Role of Innovation in Port Development

7.7 New Business Models and Financing for Urban Ports

7.8 Supply Chain Management Challenges in Ports

7.9 The Future of Training in Port Design and Management

7.40 Case Studies and Examples of Future Trends in Port Design

8.4 Relevant International and National Maritime Legislation

8.2 Port Design and Construction Regulations

8.3 Environmental and Construction Permits and Licenses

8.4 Contracts and Agreements in the Port Sector

8.5 Intellectual Property and Design Protection

8.6 Legal Liability and Insurance in Ports

8.7 Dispute Resolution Port

8.8 The Role of Port and Regulatory Authorities

8.9 Regulatory Compliance and Port Audits

8.40 Case Studies of Legal and Regulatory Aspects

4.4 Port Capacity Optimization Strategies

4.2 Design of Port Traffic Management Systems

4.3 Implementation of Automation and Control Technologies

4.4 Improving Cargo Handling Efficiency

4.5 Supply Chain Management and Port Logistics

4.6 Optimizing Berthing and Unberthing Times

4.7 Designing Key Performance Indicators (KPIs)

4.8 Risk Management and Security in Port Operations

4.9 Strategies for Reducing Operating Costs

4.40 Case Studies of Port Operation and Management Strategies

5.5 Definition and Scope of Urban Port Design

5.5 Importance of Urban Ports in Sustainable Development

5.3 Key Components of an Urban Port: Infrastructure and Services

5.4 Interrelationship between the Port and the City: Challenges and Opportunities

5.5 Historical Evolution of Urban Port Design

5.6 Current and Future Trends in Urban Port Design

5.7 Benefits and Objectives of Integrated Design

5.8 Key Stakeholders in Port Design and Operation

5.5 Market Studies and Demand Analysis

5.5 Evaluation of the Technical and Economic Feasibility of the Project

5.3 Strategic Planning: Vision, Mission, and Objectives

5.4 Selection of the Optimal Location for the Urban Port

5.5 Risk Analysis and Impact Mitigation

5.6 Master Plan and Conceptual Design Port

5.7 Cost Estimation and Cash Flow

5.8 Modeling and Simulation of Port Operations

3.5 Design of Piers and Berths: Types and Specifications

3.5 Design of Land and Sea Access Systems

3.3 Storage Design: Container, Bulk, and General Cargo Areas

3.4 Design of Buildings and Structures: Passenger Terminals, Offices, and Warehouses

3.5 Design of Cargo Handling Systems: Cranes, Conveyors, and Specialized Equipment

3.6 Design of Power and Water Supply Systems

3.7 Design of Drainage and Pollution Control Systems

3.8 Safety and Security Considerations in Design

4.5 Optimization of Port Operations: Workflows and Processes

4.5 Port Supply Chain Management

4.3 Information Systems and Technology in Ports
4.4 Port Security and Protection Management

4.5 Human Resources Management and Staff Training

4.6 Key Performance Indicators (KPIs) for Performance Evaluation

4.7 Crisis and Contingency Management Strategies

4.8 Operational Efficiency and Cost Reduction

5.5 Principles of Sustainability in Urban Port Design

5.5 Environmental Impact Assessment and Mitigation

5.3 Design of Green and Energy-Efficient Ports

5.4 Waste Management and Recycling in Ports

5.5 Environmental Regulatory Framework and International Standards

5.6 Corporate Social Responsibility in the Port Sector

5.7 Environmental and Sustainability Certifications

5.8 Case Studies of Sustainable Urban Ports

6.5 Analysis of Successful Urban Port Case Studies

6.5 Practical Application of the Design and Planning Concepts

6.3 Analysis of Challenges and Solutions in Real-World Projects

6.4 Design of Proposals and Presentations

6.5 Scenario Simulation and Sensitivity Analysis

6.6 Risk and Opportunity Assessment in Specific Projects

6.7 Implementation of Continuous Improvement Strategies

6.8 Lessons Learned and Best Practices

7.5 Technological Innovations in Urban Ports: Automation and Artificial Intelligence

7.5 Trends in Port Infrastructure Design: Flexibility and Adaptability

7.3 The Future of Urban Ports: Smart Port Cities

7.4 Impact of Digitalization on Port Management

7.5 Development of Green and Sustainable Ports

7.6 Trends in Maritime Transport and Their Impact on Ports

7.7 New Forms of Interaction Port-City

7.8 The Role of Research and Development in Port Innovation

8.5 National and International Maritime and Port Legislation

8.5 Technical Standards for Port Design and Construction

8.3 Legal Framework for Port Operation and Management

8.4 Port Security and Protection Regulations

8.5 Environmental Legislation and Sustainability in Ports

8.6 Public Procurement and Contract Management in Port Projects

8.7 Dispute Resolution and Litigation in the Port Sector

8.8 Regulatory Compliance and Legal Responsibility

6.6 Introduction to Sustainable Urban Port Planning

6.2 Principles of Sustainable Design for Ports

6.3 Environmental Impact Assessment in Port Projects

6.4 Selection of Sustainable Materials and Technologies

6.5 Waste and Resource Management in the Port

6.6 Energy Efficiency and Renewable Energy in the Port

6.7 Sustainable Transport and Logistics Planning

6.8 Design of Green Infrastructure in the Port Environment

6.9 Legal and Regulatory Framework for Port Sustainability

6.60 Case Studies: Sustainable Urban Ports

  • 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.

Capstone-type projects

Admissions, fees, and scholarships

  • 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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F. A. Q

Frequently asked questions

Yes, we have international certification

Yes: experimental models, real data, applied simulations, professional environments, real case studies.

It is not mandatory. We offer leveling tracks and tutoring.

Completely. It covers e-propulsion, integration, and emerging regulations (SC-VTOL).

Recommended. There are also internal challenges and consortiums.

Yes. Online/hybrid modality with planned labs and visa support (see “Visa & Residence”).

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