Pedestrian Mobility Planning and Accessibility Course
About our
The Pedestrian Mobility Planning and Accessibility Course focuses on the design of safer and more inclusive urban environments. It integrates knowledge of urban design, universal accessibility standards, and pedestrian traffic studies. Solutions are explored to improve road safety, sustainable mobility, and the pedestrian experience, considering the needs of people with reduced mobility, children, and other vulnerable users.
The course provides tools for pedestrian flow analysis, accessible route planning, and impact assessment of urban interventions. Aspects such as sidewalks, pedestrian crossings, signage, lighting, and street furniture are addressed, with a focus on creating more livable and equitable urban spaces. The importance of citizen participation and multidisciplinary collaboration in the planning process is emphasized.
Pedestrian Mobility Planning and Accessibility Course
- Format: Online
- Duration: 3 months
- Hours: 300 H
- Language: English / Spanish
- Registration date: 23-10-2026
- Start date: 12-12-2026
- Available places: 3
399 $
Competencies and results
What you will learn
1. Comprehensive Planning and Design of Accessible Pedestrian Mobility
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Fundamentals of Pedestrian Mobility: Understanding the needs and characteristics of pedestrians in diverse urban and rural environments.
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Legislation and Regulations on Universal Accessibility: Becoming familiar with the relevant laws and regulations to ensure accessibility for all people, including those with disabilities.
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Inclusive Design: Applying universal design principles to create pedestrian spaces that are safe, functional, and enjoyable for everyone.
- Analysis of Pedestrian Environments: Evaluating existing conditions, including infrastructure, traffic flows, obstacles, and potential hazards.
- Accessible Route Planning: Designing routes that meet accessibility requirements, considering slopes, widths, pavements, and signage.
- Design of Safe Intersections: Implement strategies to improve safety at pedestrian crossings, including traffic lights, crosswalks, and traffic calming measures.
Management of Public Space: Optimize the use of public space for pedestrians, including the placement of street furniture, rest areas, and green spaces.
Design Tools: Use design software and techniques to simulate and visualize accessible pedestrian mobility projects.
Project Evaluation: Develop skills to evaluate the effectiveness of pedestrian mobility designs, using performance indicators and user surveys.
Citizen Participation: Involve the community in the design and planning process to ensure that projects respond to local needs.
1. Evaluation and Development of Inclusive Pedestrian Mobility Projects
- Understand the fundamental principles of inclusive pedestrian mobility, including universal accessibility and the rights of people with disabilities.
- Evaluate the specific needs of different user groups, considering their abilities, limitations, and experiences in the urban environment.
- Analyze the factors that influence pedestrian mobility, such as infrastructure, urban design, public transportation, and mobility policies.
- Identify and evaluate the obstacles and barriers that hinder inclusive pedestrian mobility, such as inadequate sidewalks, dangerous pedestrian crossings, lack of accessible signage, and absence of ramps.
- Develop design and planning solutions to improve inclusive pedestrian mobility, including adapting existing infrastructure and creating new accessible spaces.
- Apply project evaluation tools and techniques, including cost-benefit analyses, environmental impact studies, and risk assessments.
- Develop pedestrian mobility project proposals inclusive, including clear objectives, implementation strategies, timelines, and budgets.
- Manage inclusive pedestrian mobility projects, including coordinating multidisciplinary teams, supervising construction, and monitoring progress.
- Evaluate the effectiveness of inclusive pedestrian mobility projects using performance indicators and user satisfaction surveys.
- Promote citizen participation and collaboration with stakeholders, including organizations of people with disabilities, local authorities, and private companies.
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. Design and Planning of Accessible and Safe Pedestrian Routes
- Identify and understand the key elements for creating accessible pedestrian routes, including regulations and standards.
- Assess user needs, considering the diversity of abilities and physical conditions.
- Apply universal design principles to ensure inclusion and accessibility in the pedestrian environment.
- Plan safe routes, analyzing potential risks and mitigation measures.
- Design the signage and information necessary to facilitate wayfinding and mobility.
- Know and select appropriate materials for constructing accessible and safe pedestrian routes.
- Integrate pedestrian route planning with the urban environment and public transportation.
- Manage design and construction projects for accessible and safe pedestrian routes, including budgets and deadlines.
- Evaluate the effectiveness of designed pedestrian routes, applying accessibility indicators and security.
5. Optimization of Pedestrian Mobility: Planning and Accessibility
5. Optimizing Pedestrian Mobility: Planning and Accessibility
- Identify and evaluate key elements for pedestrian mobility planning, including population density, land use, and existing transport networks.
- Apply universal design and accessibility principles to create inclusive and safe pedestrian environments for all people, including those with disabilities.
- Analyze and apply relevant regulations and standards for the planning and design of pedestrian infrastructure, such as sidewalks, crosswalks, and pedestrian zones.
- Use modeling and simulation tools and techniques to predict pedestrian flow, optimize infrastructure design, and assess the impact of interventions on mobility.
- Design and evaluate strategies to improve road safety for pedestrians, including the implementation of traffic control measures, signage, and early warning systems.
- Develop comprehensive pedestrian mobility plans that consider connectivity with other modes of transport.
transportation, such as public transport and cycling, to promote intermodality.
Evaluate the environmental and socioeconomic impact of pedestrian mobility interventions, including emissions reduction, improved public health, and the promotion of economic activity.
Implement and monitor citizen participation programs to involve the community in the planning and design process of pedestrian infrastructure.
6. Pedestrian Mobility Planning: Accessibility and Urban Design
6. Pedestrian Mobility Planning: Accessibility and Urban Design
- Understand the fundamental principles of universal accessibility in the urban environment, including current regulations and international best practices.
- Identify and analyze the architectural and urban barriers that hinder pedestrian mobility for people with disabilities and other vulnerable groups.
- Evaluate and propose urban design solutions that improve pedestrian accessibility, considering aspects such as sidewalk width, signage, crosswalks, and street furniture.
- Apply urban planning tools and techniques to create safe, comfortable, and attractive pedestrian environments, promoting sustainable mobility and quality of life.
- Analyze case studies of successful pedestrian mobility planning projects, identifying the keys to their implementation and replication.
- Develop skills for creating pedestrian mobility plans, including the collection of
- To understand and apply inclusive urban design criteria that promote social integration and citizen participation in pedestrian mobility planning.
- To integrate a gender perspective into pedestrian mobility planning, considering the different needs and experiences of men and women in public spaces.
- To evaluate the impact of pedestrian mobility policies on public health, the environment, and the local economy.
- To promote citizen participation and dialogue with the various stakeholders involved in pedestrian mobility planning.
Who this program is for:
Pedestrian Mobility Planning and Accessibility Course
- Engineering professionals and those in related disciplines, such as civil engineers, architects, urban planners, and designers.
- Technicians and managers of mobility, transportation, and urban planning departments in public administrations (city councils, regional governments, etc.).
- Consultants and advisors working on projects related to pedestrian mobility and accessibility.
- Professionals from construction, development, and urban services companies interested in improving the planning of their projects.
- Anyone interested in acquiring knowledge and skills in the design of accessible and pedestrian-friendly urban spaces.
- 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 Pedestrian Mobility: Definition and Scope
1.2 Legal and Regulatory Framework: Universal Accessibility
1.3 Diagnosis and Analysis: Study of the Urban Environment
1.4 Inclusive Design: Principles and Guidelines
1.5 Tools and Methodologies: Comprehensive Planning
1.6 Key Elements: Design of Sidewalks and Crosswalks
1.7 Design of Signage and Communication: Visual Accessibility
1.8 The Built Environment: Accessible Street Furniture
1.9 Budget and Management: Project Feasibility
1.10 Case Studies: Examples of Successful Planning
2. Accessible Pedestrian Planning and Design
2.2 Introduction to Pedestrian Accessibility: Definitions and Key Concepts
2.2 Legal and Regulatory Framework for Pedestrian Accessibility
2.3 Principles of Universal Design Applied to Pedestrian Environments
2.4 Analysis of the Urban Environment: Topography, Climate, and Existing Barriers
2.5 Design of Sidewalks, Crosswalks, and Safe Crossings
2.6 Design of Accessible Street Furniture: Benches, Signage, etc.
2.7 Pavement and Surface Design: Accessibility Criteria
2.8 Considerations for People with Visual Impairments: Tactile Paving and Signage
2.9 Considerations for People with Reduced Mobility: Ramps, Lifts, and Platforms
2.20 Case Study: Examples of Successful Accessible Pedestrian Planning and Design
2. Evaluation of Pedestrian Mobility Projects
2.2 Methodology for Evaluating Pedestrian Mobility Projects
2.2 Key Performance Indicators (KPIs) for Evaluating Pedestrian Accessibility and Safety
2.3 Cost-Benefit Analysis of Pedestrian Mobility Projects
2.4 Environmental Impact Assessment of Pedestrian Projects
2.5 Evaluation of User Perception and Satisfaction
2.6 Data Collection Techniques: Surveys, Observation, Pedestrian Counts
2.7 Tools and Software for Project Evaluation
2.8 Risk Assessment and Mitigation Measures in Pedestrian Projects
2.9 Case Studies: Evaluation of Pedestrian Mobility Projects
2.20 Design of a Monitoring and Evaluation Plan
3. Strategies for Pedestrian Mobility
3.2 Promoting Pedestrian Mobility as a Sustainable Means of Transport
3.3 Urban Planning Strategies to Encourage Pedestrian Mobility
3.4 Public Policies for Promoting Pedestrian Accessibility
3.5 Designing Awareness and Road Safety Education Campaigns
3.6 Developing Pedestrian Routes and Urban Footpaths
3.7 Integrating Pedestrian Mobility with Other Modes of Transport
3.8 Designing Low Emission Zones and Their Impact on Pedestrian Mobility
3.9 Strategies to Improve Road Safety in Pedestrian Environments
3.1 Promoting Cycling as a Complement to Pedestrian Mobility
3.20 Examples of Successful Strategies in Different Cities
4. Designing Accessible Pedestrian Routes
4.1 Selection and Analysis of Pedestrian Routes
4.2 Designing Accessible Routes for People with Visual Impairments
4.3 Designing Accessible Routes for People with Reduced Mobility
4.4 Designing Routes Safe pedestrian crossings: lighting, signage, and visibility
4.5 Design of safe pedestrian crossings: traffic lights, crosswalks, and pedestrian overpasses
4.6 Design of routes that connect with public transportation
4.7 Design of routes with clear and legible signage
4.8 Design of routes with appropriate street furniture: benches, drinking fountains, etc.
4.5 Design of safe pedestrian crossings: traffic lights, crosswalks, and pedestrian overpasses
4.6 Design of routes that connect with public transportation
4.7 Design of routes with clear and legible signage
4.8 Design of routes with appropriate street furniture: benches, drinking fountains, etc. 4.9 Designing routes that integrate the urban landscape
4.20 Case study: designing an accessible pedestrian route
5. Pedestrian Mobility Optimization
5.2 Analysis of pedestrian mobility supply and demand
5.2 Modeling and simulation of pedestrian flows
5.3 Optimization of the pedestrian route network
5.4 Pedestrian traffic management at events and busy locations
5.5 Use of smart technologies for pedestrian mobility optimization
5.6 Design of pedestrian information systems: digital signage
5.7 Optimizing accessibility to buildings and services
5.8 Measures to reduce pedestrian congestion
5.9 Strategies to improve the user experience
5.20 Practical examples of pedestrian mobility optimization
6. Pedestrian Mobility, Accessibility, and Design
6.2 Integrating accessibility into urban design
6.2 Designing inclusive public spaces
6.3 Designing pedestrian environments that 6.4 Designing pedestrian environments that promote physical activity
6.5 Gender considerations in the design of pedestrian spaces
6.6 Designing pedestrian environments that meet the needs of different age groups
6.7 Designing pedestrian environments resilient to climate change
6.8 The role of design in reducing architectural and social barriers
6.9 Case study: examples of inclusive urban design
6.20 Designing a plan to improve accessibility and pedestrian mobility
7. Strategic Pedestrian Optimization
7.2 Long-term strategic planning for pedestrian mobility
7.2 Defining objectives and goals for pedestrian mobility
7.3 Developing strategic key performance indicators (KPIs)
7.4 Analyzing user needs and expectations
7.5 Identifying key stakeholders and their involvement
7.6 Developing a strategic action plan
7.7 Evaluating and monitoring the plan Strategic
7.8 Adapting the strategic plan to changes in the urban environment
7.9 Risk analysis and mitigation strategies
7.20 Case study: Development of a strategic pedestrian mobility plan
8. Pedestrian Environment Planning
8.2 Principles of urban planning for pedestrian environments
8.2 Designing neighborhoods and districts oriented towards pedestrian mobility
8.3 Planning the public transport network for pedestrian mobility
8.4 Integrating pedestrian mobility into the urban development plan
8.5 Designing green spaces and recreation areas in pedestrian environments
8.6 Planning infrastructure for pedestrian mobility
8.7 Citizen participation in pedestrian environment planning
8.8 Legal and regulatory framework for pedestrian environment planning
8.9 Case study: Planning a new urban development
8.20 Designing an implementation and management plan for a pedestrian environment
3.3. Strategic Framework for Pedestrian Mobility
3.2. Public Policies and Regulations in Pedestrian Mobility
3.3. Universal Design and Inclusion in the Mobility Plan
3.4. Technologies and Tools for Pedestrian Accessibility
3.5. Citizen Participation and Communication in Pedestrian Projects
3.6. Data Analysis and Monitoring of Pedestrian Mobility
3.7. Financing and Sustainability of Pedestrian Projects
3.8. Adaptation to Climate Change in Pedestrian Design
3.9. Pedestrian Accessibility and Safety Regulations
3.30. Case Studies and Best Practices in Pedestrian Mobility
4.4 Conceptual Framework and Principles of Accessible Pedestrian Mobility
4.2 Universal Design and Accessibility: Standards and Regulations
4.3 Data Collection and Current Situation Assessment
4.4 Identification of Architectural and Urban Barriers
4.5 Design of Solutions for Barrier Removal
4.6 Pedestrian Infrastructure Planning: Sidewalks, Crosswalks, etc.
4.7 Design of accessible urban elements: street furniture, signage
4.8 Preparation of detailed plans and designs
4.9 Integration of pedestrian mobility into the urban environment
4.40 Case study: Practical application of planning
2.4 Methodology for evaluating inclusive pedestrian mobility projects
2.2 Accessibility and usability indicators
2.3 Social and economic impact analysis
2.4 Safety and comfort assessment
2.5 Gender and functional diversity considerations
2.6 Evaluation tools and techniques
2.7 Data analysis and report writing
2.8 Evaluation of citizen participation
2.9 Identification of opportunities for improvement
2.40 Case study: Evaluation of a specific project
3.4 Definition of strategies for pedestrian mobility
3.2 Pedestrian mobility planning: policies and plans
3.3 Promotion of universal accessibility
3.4 Design of inclusive urban environments
3.5 Education and awareness-raising on Accessibility
3.6 Promoting Citizen Participation
3.7 Implementing Improvement Measures
3.8 Evaluating and Monitoring Strategies
3.9 Inter-institutional Collaboration and Strategic Alliances
3.40 Case Study: Implementing a Successful Strategy
4.4 Designing Pedestrian Routes: Criteria and Requirements
4.2 Designing Safe Pedestrian Crossings
4.3 Designing At-Grade and Overpasses
4.4 Designing Accessible Pavements and Surfaces
4.5 Designing Accessible Ramps and Stairs
4.6 Designing Signage and Wayfinding
4.7 Lighting and Visibility on Pedestrian Routes
4.8 Designing Accessible Street Furniture
4.9 Traffic Management and Road Safety
4.40 Case Study: Designing a Safe Pedestrian Route
5.4 Optimizing Pedestrian Mobility: Principles and Objectives
5.2 Pedestrian Mobility Planning: Strategies
5.3 Designing Accessible and Safe Infrastructure
5.4 Implementation Improvement Measures
5.5 Pedestrian Mobility Management: Tools
5.6 Pedestrian Mobility Assessment: Indicators
5.7 Use of Technologies to Improve Mobility
5.8 Promotion of Sustainable and Active Mobility
5.9 Case Study: Implementation of Optimization Measures
5.40 Analysis of Results and Conclusions
6.4 Urban Planning and Pedestrian Mobility
6.2 Principles of Universal Design and Accessibility
6.3 Design of Public Space for Pedestrian Mobility
6.4 Integration of Accessibility into Urban Design
6.5 Design of Pedestrian Infrastructure: Criteria
6.6 Accessibility in Public Transport
6.7 Citizen Participation in Planning
6.8 Legislation and Regulations on Accessibility
6.9 Case Study: Accessible Urban Planning
6.40 Evaluation and Monitoring of Projects
7.4 Strategic Analysis of Pedestrian Mobility
7.2 Strategic Mobility Planning
7.3 Implementation of Policies and Programs
7.4 Design and Infrastructure Optimization
7.5 Use of Technologies to Improve Mobility
7.6 Promoting Citizen Participation
7.7 Evaluation and Monitoring of Strategies
7.8 Project Financing and Management
7.9 Case Study: Implementing a Strategy
7.40 Analysis of Results and Conclusions
8.4 Design Principles for Pedestrian Environments
8.2 Universal Accessibility in Design
8.3 Public Space Design: Criteria
8.4 Design of Accessible Street Furniture
8.5 Design of Signage and Wayfinding
8.6 Design of Pavements and Cladding
8.7 Lighting and Safety Design
8.8 Integrating Design with the Environment
8.9 Case Study: Designing a Pedestrian Environment
8.40 Evaluation and Maintenance of Environments
5.5 Introduction to Comprehensive Planning and Design
5.5 Regulatory Framework and Accessibility Standards
5.3 Context Analysis and Diagnosis of Pedestrian Mobility
5.4 Identification of Architectural and Urban Barriers
5.5 Design of Accessible Urban Elements (Sidewalks, Crossings, etc.)
5.6 Considerations for People with Reduced Mobility
5.7 Design of Accessible Signage and Wayfinding
5.8 Citizen Participation Techniques and Participatory Design
5.9 3D Design and Modeling Tools for Accessibility
5.50 Case Studies and Examples of Successful Design
5.5 Methodology for Evaluating Pedestrian Projects
5.5 Accessibility and Mobility Indicators
5.3 Cost-Benefit Analysis of Inclusive Mobility Projects
5.4 Evaluation of Social and Environmental Impact
5.5 Development of Improvement Proposals and Solutions
5.6 Preparation of Technical Reports and Feasibility Studies
5.7 Management of Inclusive Pedestrian Mobility Projects
5.8 Project Financing and Budgeting
5.9 Project Monitoring and Tracking
5.50 Case Studies and Analysis of Real Projects
3.5 Public Policies and Legislation on Pedestrian Mobility
3.5 Strategies for Promoting Active Mobility
3.3 Promoting Accessible and Integrated Public Transport
3.4 Communication and Awareness Raising on Accessibility
3.5 Universal Design and Design for All
3.6 Designing Safe Environments for Pedestrians
3.7 Transport Demand Management
3.8 Inter-institutional Collaboration and Citizen Participation
3.9 Climate Change Adaptation Strategies
3.50 Examples of Successful Strategies at a Global Level
4.5 Geometric Design of Pedestrian Routes
4.5 Design of Safe Pedestrian Crossings
4.3 Lighting and Visibility in Pedestrian Environments
4.4 Design of Accessible Pavements and Materials
4.5 Design of Accessible Street Furniture
4.6 Integrating Vegetation into Pedestrian Routes
4.7 Design 4.8 Designing routes for people with visual impairments
4.9 Designing routes for people with hearing impairments
4.50 Risk analysis and road safety
4.51 Case studies and examples of innovative design
5.5 Planning the pedestrian mobility network
5.5 Prioritizing interventions and projects
5.3 Managing public space for pedestrians
5.4 Optimizing signage and wayfinding
5.5 Measures to reduce traffic speed
5.6 Promoting the use of bicycles and other active modes of transport
5.7 Managing parking and loading/unloading zones
5.8 Evaluating the impact of interventions
5.9 Key performance indicators (KPIs)
5.50 Best practices and case studies
6.5 The role of urban design in accessibility
6.5 Designing complete streets and pedestrian environments
6.3 Integrating pedestrian mobility into urban planning
6.4 Designing accessible squares and public spaces
6.5 Designing Accessible Buildings and Facilities
6.6 Integrating Pedestrian Mobility with Public Transport
6.7 The Role of Technology in Accessibility
6.8 Designing Resilient Urban Environments
6.9 Designing Inclusive and Friendly Cities
6.50 Case Studies and Examples of Urban Design
7.5 Diagnosis and Strategic Analysis of Pedestrian Mobility
7.5 Establishing Strategic Objectives and Goals
7.3 Identifying Stakeholders
7.4 Developing Action Plans and Intervention Programs
7.5 Implementing and Monitoring Strategies
7.6 Evaluating Results and Continuous Improvement
7.7 Managing Change and Adapting to the Context
7.8 Communicating and Disseminating Results
7.9 Leading and Managing Multidisciplinary Teams
7.50 Examples of Successful Strategic Planning
8.5 Design Considerations in Pedestrian Environments
8.5 Universal Accessibility in Outdoor Spaces
8.3 Designing Safe and Comfortable Public Spaces
8.4 Design 8.5 Design of accessible pavements and surfaces
8.6 Design of inclusive street furniture
8.7 Design of lighting for safety and wayfinding
8.8 Design of accessible signage and wayfinding
8.9 Design of green and sustainable environments
8.50 Design of environments for social interaction
8.50 Case studies and examples of innovative design
6.6 Fundamentals of Accessible Pedestrian Mobility and its Importance
6.2 Regulatory and Legislative Framework for Pedestrian Mobility
6.3 Principles of Universal Design and its Application
6.4 Identification and Analysis of Architectural and Urban Barriers
6.5 Design of Accessible Pavements and Surfaces
6.6 Signage and Wayfinding Considerations
6.7 Design of Safe Intersections and Pedestrian Crossings
6.8 The Role of Ergonomics in Pedestrian Design
6.9 Accessibility Assessment Using Software and Tools
6.60 Case Studies: Examples of Successful Integrated Design
2.6 Identifying Needs and Diagnosing the Current Situation
2.2 Methodology for Data Collection and Analysis
2.3 Designing Surveys and Interviews for Citizen Participation
2.4 Defining Project Objectives and Scope 2.5 Budgeting and scheduling.
2.6 Designing inclusive and personalized solutions.
2.7 Selecting accessible materials and technologies.
2.8 Stakeholder management and effective communication.
2.9 Impact assessment and project monitoring.
2.60 Case study: developing successful inclusive projects.
3.6 Developing public policies on pedestrian mobility and accessibility.
3.2 Promoting walkability and active mobility.
3.3 Strategies for reducing traffic speed.
3.4 Designing low-emission zones and pedestrian-friendly environments.
3.5 Promoting the use of public transportation and non-motorized modes of transport.
3.6 Implementing accessibility measures in public transportation.
3.7 Designing awareness campaigns and road safety education.
3.8 Citizen participation and public consultation processes. 3.9 Performance Indicators and Impact Assessment
3.60 Case Study: Implementation of Successful Strategies
4.6 Road Safety Principles Applied to Pedestrian Route Design
4.2 Design of Safe and Comfortable Sidewalks and Footpaths
4.3 Design of Safe and Accessible Pedestrian Crossings
4.4 Design of Level Crossings and Pedestrian Bridges
4.5 Design of Horizontal and Vertical Signage
4.6 Pedestrian Route Lighting for Nighttime Safety
4.7 Design of Safe and Accessible Street Furniture
4.8 Safety Considerations in the Face of Natural Disasters
4.9 Road Safety Audits for Pedestrians
4.60 Case Study: Design of Successful Safe Pedestrian Routes
5.6 Optimization of the Existing Pedestrian Network
5.2 Pedestrian Flow and Capacity Analysis
5.3 Design of Efficient and Direct Pedestrian Routes
5.4 Integrating pedestrian mobility with other modes of transport.
5.5 Designing accessible and efficient public transport stations.
5.6 Designing parking facilities for bicycles and other vehicles.
5.7 Pedestrian information and wayfinding systems.
5.8 Demand management and event planning.
5.9 Modeling and simulation of pedestrian mobility.
5.60 Case study: successful pedestrian optimization and planning.
6.6 Principles of urban design for pedestrian mobility.
6.2 Designing complete streets and public spaces.
6.3 Designing accessible and attractive squares and parks.
6.4 Designing pedestrian-friendly facades and urban environments.
6.5 Designing the green and blue infrastructure network.
6.6 Designing mobility and parking.
6.7 Designing low-emission zones and pedestrian-friendly environments.
6.8 Considerations of urban sustainability and resilience.
6.9 The role of citizen participation in urban design.
6.60 Case study: urban design for successful pedestrian mobility.
7.6 Context analysis and diagnosis of the current situation.
7.2 Definition of vision, mission, and strategic objectives.
7.3 Identification of key performance indicators (KPIs).
7.4 Stakeholder analysis and management of citizen participation.
7.5 Development of an action plan and timeline.
7.6 Evaluation of the plan’s feasibility and impact.
7.7 Resource and budget management.
7.8 Implementation and monitoring of the strategic plan.
7.9 Communication and dissemination of results.
7.60 Case study: successful pedestrian strategic planning.
8.6 Analysis and evaluation of the existing pedestrian environment.
8.2 Identification of needs and problems.
8.3 Design of urban and architectural interventions.
8.4 Design of street furniture and signage.
8.5 Integration of pedestrian mobility with other land uses.
8.6 Design of universal accessibility in the environment.
8.7 Sustainability and energy efficiency considerations.
8.8 Project management and quality control.
8.9 Evaluation and monitoring of implementation.
8.60 Case study: successful pedestrian environment planning.
- 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.
Do you have any questions?
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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”).