KPIs Course in Sustainable Urban Mobility

About our

The Sustainable Urban Mobility KPIs Course focuses on the analysis and management of key performance indicators (KPIs) to assess the efficiency and sustainability of urban transport systems. It addresses topics such as urban planning, fleet management, transport infrastructure, and environmental impact, employing data analysis and transport modeling tools. Strategies for improving active mobility, the use of public transport, and the integration of electric vehicles are explored, with the aim of fostering more livable and resilient cities.

The course provides a solid foundation for data-driven decision-making, enabling participants to optimize transport operations and reduce their carbon footprint. Practical cases and examples of KPI implementation in different urban contexts are studied, preparing professionals for roles in transport planning, mobility management, and urban sustainability consulting. Emphasis is placed on compliance with sustainability regulations and the use of smart technologies in the transport sector.

KPIs Course in Sustainable Urban Mobility

750 $

Competencies and results

What you will learn

1. Strategic KPIs for Sustainable Urban Mobility

  • Define and understand the essential KPIs for measuring the success of sustainable urban mobility initiatives.
  • Evaluate the effectiveness of KPIs in relation to specific sustainability objectives, such as emissions reduction and improved air quality.
  • Interpret KPI data and results to identify trends, areas for improvement, and optimization opportunities in urban planning.
  • Apply analytical tools for KPI management, including data visualization and report creation.
  • Design KPI-based strategies to promote sustainable urban mobility, encouraging the use of public transport and active mobility.
  • Evaluate the impact of sustainable urban mobility policies on citizens’ quality of life and the environment.
  • environment.

1. In-depth Analysis of KPIs in Sustainable Urban Mobility

Here is the requested content:

  • Identify and evaluate the essential Key Performance Indicators (KPIs) in the field of sustainable urban mobility.
  • Understand the methodology for collecting and analyzing data related to KPIs, including information sources and measurement tools.
  • Interpret KPI results to evaluate the performance of sustainable urban mobility initiatives, identifying areas for improvement and optimization opportunities.
  • Apply KPIs in the planning and management of sustainable urban mobility projects, making informed decisions based on concrete data.
  • Analyze KPI trends and patterns over time, anticipating future challenges and adapting urban mobility strategies.
  • Establish and monitor specific goals and objectives based on KPIs, ensuring progress towards more sustainable urban mobility.
  • Explore case studies and practical examples of KPI application in different contexts of sustainable urban mobility.
  • Evaluate the effectiveness of sustainable urban mobility policies and programs using KPIs as a measurement tool.

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. Optimization of KPIs for Sustainable Urban Mobility

  • Identify and evaluate key performance indicators (KPIs) specific to sustainable urban mobility.
  • Understand the relationship between KPIs and sustainability goals, such as emissions reduction, energy efficiency, and improved air quality.
  • Learn to collect and analyze relevant data for calculating KPIs, including traffic data, public transport usage, energy consumption, and other environmental indicators.
  • Use tools and methodologies for KPI optimization, such as traffic modeling, scenario analysis, and mobility policy simulation.
  • Design and implement strategies to improve KPI performance, including promoting public transport, developing infrastructure for electric vehicles, and implementing traffic management measures.
  • Evaluate the impact of different strategies on KPIs and urban mobility sustainability goals.
  • Learn about trends and Emerging technologies in sustainable urban mobility, such as autonomous vehicles, Mobility as a Service (MaaS), and smart cities.

5. Evaluation and Measurement of KPIs in Sustainable Urban Mobility

  • Identify and define key performance indicators (KPIs) for sustainable urban mobility.
  • Analyze relevant data and metrics to evaluate the performance of mobility initiatives.
  • Apply tools and techniques for KPI measurement, including surveys and data analysis.
  • Interpret the results of KPI evaluations and draw meaningful conclusions.
  • Use the results for strategic decision-making and continuous improvement of urban mobility.
  • Understand the impact of mobility policies on key KPIs.
  • Evaluate the economic, social, and environmental sustainability of mobility solutions.
  • Use data analysis software for KPI visualization and presentation.
  • Develop effective reports and presentations on urban mobility performance.
  • Learn from case studies of cities that have successfully implemented KPI measurement systems.
  • KPIs.

6. Design and Application of Key Performance Indicators in Sustainable Mobility

6. Design and Application of Key Performance Indicators in Sustainable Mobility

  • Define and understand the fundamental concepts of sustainable mobility, including its economic, social, and environmental dimensions.
  • Identify and select relevant key performance indicators (KPIs) to evaluate the performance of sustainable mobility projects and strategies.
  • Learn methodologies for collecting and analyzing the data necessary for calculating KPIs, including the use of tools and technologies.
  • Develop the ability to interpret KPI results and use them for informed decision-making, identifying areas for improvement, and optimizing strategies.
  • Study the regulatory framework and public policies related to sustainable mobility, including applicable regulations and standards.
  • Acquire knowledge about current and future trends in sustainable mobility, such as electromobility, shared transportation, and smart cities.
  • Apply the acquired knowledge by creating a KPI monitoring and evaluation plan for a specific sustainable mobility project or initiative.

Who this program is for:

KPIs Course in Sustainable Urban Mobility

  • Professionals and technicians involved in the planning, management, and evaluation of sustainable urban mobility projects.
  • Public officials and decision-makers in local, regional, and national administrations with responsibilities in transport and urban planning.
  • Consultants and advisors working in the field of sustainable urban mobility who wish to expand their knowledge of KPIs.
  • Researchers and academics interested in data analysis and performance evaluation in the context of sustainable urban mobility.
  • 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 Strategic KPIs: Definition and Purpose

1.2 Importance of KPIs in Sustainable Urban Mobility

1.3 Selection of Key KPIs: Criteria and Methodology

1.4 Examples of Strategic KPIs: Environmental, Social, and Economic

1.5 Aligning KPIs with Urban Sustainability Objectives

1.6 Establishing Measurable Goals and Objectives

1.7 Conceptual Framework for KPI Implementation

1.8 Tools and Technologies for KPI Management

1.9 Case Studies: Best Practices in KPI Definition

1.10 Common Challenges and Solutions in KPI Implementation

2. Definition and selection of key KPIs for sustainable mobility.

3. Data sources for KPI collection: primary and secondary data.

4. Tools and techniques for KPI analysis: descriptive, diagnostic, and predictive analysis.

5. Identifying trends and patterns through KPI analysis.

6. Interpreting results and their relationship to sustainable mobility objectives.

7. Comparative analysis: benchmarking with other cities and best practices.

8. Case studies: KPI analysis in different urban contexts.

9. Report writing and data visualization for effective communication of results.

20. Identifying areas for improvement based on KPI analysis.

22. Impact analysis of sustainable urban mobility policies.

3.3 Definition and Selection of Specific KPIs for Sustainable Urban Mobility Projects

3.2 Development of a Detailed Implementation Plan for KPIs

3.3 Tools and Technologies for KPI Data Collection

3.4 Design of Dashboards and Data Visualizations for KPIs

3.5 Integration of KPIs into Mobility Management Platforms

3.6 Pilot Testing and Validation of KPIs in Real-World Environments

3.7 Change Management and Training for KPI Implementation

3.8 Case Studies: KPI Implementation in Different Cities and Contexts

3.9 Best Practices and Lessons Learned in KPI Implementation

3.30 Analysis of Results and Adjustments for Continuous Improvement of KPIs

4.4 Defining KPI Optimization Objectives

4.2 Selecting Relevant KPIs for Optimization

4.3 Data and Trend Analysis for Optimization

4.4 Data-Driven KPI Optimization Strategies

4.5 Tools and Technologies for KPI Optimization

4.6 KPI Tuning and Calibration

4.7 Continuous Monitoring and Feedback

4.8 Implementing Improvements and Iterative Adjustments

4.9 Integrating Optimized KPIs into Decision-Making

4.40 KPI Optimization Case Studies

5. Definition of strategic KPIs for sustainable urban mobility.

5. Identification of key performance indicators (OKRs).

3. Selection of KPIs aligned with strategic objectives.

4. Establishment of goals and benchmarks.

5. Prioritization of KPIs based on their impact and feasibility.

6. Creation of a KPI map for sustainable urban mobility.

7. Communication of KPIs to stakeholders.

8. Data collection and definition of measurement frequency.

5. Analysis of historical data and trends.

3. Identification of correlations and relationships between KPIs.

4. Evaluation of the influence of external factors on KPIs.

5. Analysis of KPI deviations from targets.

6. Use of data visualization tools for analysis.

7. Interpretation of results and development of conclusions. 8. Generation of analytical reports for decision-making.

3. Selection of data management platforms and tools.

4. Definition of the data architecture and information flow.

5. Configuration of KPI monitoring and measurement systems.

6. Implementation of reporting and visualization mechanisms.

7. Integration of data from different sources (public transportation, traffic, etc.).

8. Staff training on the use of the tools.

9. Testing and validation of the implemented system.

50. Real-time monitoring of KPI performance.

4. Identification of areas for improvement in the KPIs.

5. Adjustment of goals and benchmarks.

6. Optimization of measurement and reporting frequency.

7. Implementation of corrective and preventive actions.

8. Analysis of the effectiveness of optimization actions.

9. Updating the KPI strategy.

50. Use of predictive analytics techniques.

5. Establishment of evaluation criteria.

6. Measurement of KPIs at regular intervals.

7. Analysis of KPI variation over time.

8. Identification of trends and patterns.

9. Evaluation of goal and objective achievement.

50. Generation of evaluation reports.

55. Comparison with benchmarks and best practices.

55. Continuous review of KPI effectiveness.

6. Selection of relevant key performance indicators (KPIs).

7. Design of the indicator structure (formulas, metrics).

8. Definition of data sources and collection methods.

9. Establishment of monitoring and reporting frequency.

50. Creation of dashboards and customized reports.

55. Communication of indicators to stakeholders. 55. Evaluation of the clarity and relevance of the indicators.

53. Adjustment of the indicators as needed.

7. Review of KPI results.

8. Identification of underperforming areas.

9. Implementation of improvement strategies.

50. Analysis of the effectiveness of the strategies.

55. Continuous optimization of KPIs.

55. Evaluation of the impact of improvements on mobility.

53. Benchmarking with other cities or regions.

54. Adaptation to new technologies and trends.

8. Development of advanced KPI strategies.

9. Integration of KPIs into strategic planning.

50. Use of KPIs for data-driven decision-making.

55. Implementation of performance management systems.

55. Scenario analysis and results simulation.

53. Evaluation of the impact of mobility policies. 54. Designing KPI communication strategies.

55. Adapting to changes in the environment.

6.6 Introduction to Strategic KPIs in Sustainable Urban Mobility

6.2 Defining SMART Objectives and Goals for Sustainable Mobility

6.3 Identifying Stakeholders and Their Information Needs

6.4 Selecting Key KPIs Based on Strategic Objectives

6.5 Designing the Conceptual Framework and KPI Architecture

6.6 Creating a Strategic KPI Map

6.7 Aligning KPIs with Mobility Policies and Regulations

6.8 Examples of Strategic KPIs by Area (Public Transport, Bicycles, etc.)

6.9 Tools and Technologies for KPI Management

6.60 Case Study: Developing KPIs for a Specific City

2.6 Data Collection for KPI Analysis

2.2 Analyzing Trends and Patterns in Data KPIs

2.3 Data Visualization Techniques for KPIs (Dashboards, Charts)

2.4 Regression and Correlation Analysis for KPIs

2.5 Analysis of Historical Data and Future Projections

2.6 Identifying Factors that Influence KPIs

2.7 Sensitivity Analysis and Scenarios

2.8 Comparing KPIs with Industry Benchmarks

2.9 Evaluating Data Quality and Reliability

2.60 Case Study: KPI Analysis in Different Urban Contexts

3.6 Selecting Platforms and Tools for KPI Implementation

3.2 Designing Custom Dashboards

3.3 Defining Data Collection and Update Frequency

3.4 Automating Data Collection and Processing

3.5 Integrating Geographic Information Systems (GIS)

3.6 Implementation Alert and Notification Systems

3.7 Staff Training in the Use of KPIs

3.8 Pilot Testing and Implementation Validation

3.9 Development of User Guides and Manuals

3.60 Case Study: Implementing KPIs in a Mobility Project

4.6 Setting Performance Goals for KPIs

4.2 Root Cause Analysis of Unsatisfactory Performance

4.3 Adjusting Data Collection and KPI Definition

4.4 Optimizing Data Visualization and Presentation

4.5 Implementing Improvements Based on Data Analysis

4.6 Using Predictive Models for Optimization

4.7 Feedback and Continuous Adaptation

4.8 Integrating Emerging Technologies for Optimization

4.9 Evaluating the Impact of Implemented Improvements

4.60 Case Study: KPI Optimization in An Existing Transportation System

5.6 Development of KPI Evaluation Methodologies

5.2 Definition of Additional Performance Indicators

5.3 Design of Surveys and Interviews for Feedback Collection

5.4 Results Analysis and Impact Assessment

5.5 Measuring User Satisfaction

5.6 Cost-Benefit Analysis of Initiatives

5.7 Monitoring the Achievement of Objectives and Goals

5.8 Preparation of Evaluation Reports

5.9 Communication of Results to Stakeholders

5.60 Case Study: Evaluation of a Sustainable Mobility Project

6.6 Selection of Specific Key Performance Indicators (KPIs)

6.2 Design of Measurement and Evaluation Frameworks

6.3 Establishment of Baselines and Performance Targets

6.4 Definition of Data Sources and Collection Methods

6.5 Creating Customized Dashboards

6.6 Integrating Data with Geographic Information Systems (GIS)

6.7 Developing Reports and Results Presentations

6.8 Communicating Results to Stakeholders

6.9 Evaluating the Impact of Mobility Initiatives

6.60 Case Study: Practical Application of Indicators in Real-World Projects

7.6 Periodic Review of KPI Performance

7.2 Identifying Deviations and Areas for Improvement

7.3 Analyzing the Root Causes of Problems

7.4 Adjusting KPI Definitions and Targets

7.5 Implementing Corrective Actions

7.6 Optimizing Data Collection and Analysis

7.7 Using Advanced Analysis Tools

7.8 Continuous Monitoring and Feedback

7.9 Continuous Improvement and Adaptation to New Circumstances
7.60 Case Study: Evaluation and Optimization in Diverse Urban Scenarios

8.6 Advanced KPIs for Mobility Planning

8.2 KPIs for Environmental Impact Assessment

8.3 KPIs for Equity and Accessibility

8.4 KPIs for Mobility System Resilience

8.5 KPIs for Integrating Mobility as a Service (MaaS)

8.6 KPIs for Electric Mobility

8.7 KPIs for Shared Mobility

8.8 Future Trends in KPI Development

8.9 The Role of Artificial Intelligence and Big Data

8.60 International Success Stories in the Application of Advanced KPIs

  • 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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