Master's in Crisis Management and Decision-Making in Emergencies
This master's gives you the skills and knowledge you need to lead and coordinate effective responses to any kind of crisis. You will learn to analyze risks, plan mitigation strategies and make critical decisions under pressure, minimizing the impact on lives and property, and you will work with realistic simulations, predictive data tools, crisis communication techniques and methods for managing multidisciplinary teams and restoring operations after an incident.
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What is the Master's in Crisis Management and Decision-Making in Emergencies?
This master's covers the whole crisis cycle, from anticipation to recovery. You will study the types and phases of crises; decision frameworks such as OODA and DECIDE, heuristics and cognitive biases under pressure; predictive models based on statistics, machine learning, explainable AI, Monte Carlo simulation and digital twins; big data, IoT sensors, GIS and remote sensing for real-time monitoring and early warning; decision support systems and interoperable platforms for multi-agency coordination; integrated risk and vulnerability management under the Sendai Framework, ISO 31000 and NIST; tactical and operational command of complex incidents, resource allocation and team resilience; crisis communication, spokespeople, information management and cybersecurity; and recovery, psychosocial support, lessons learned and organizational resilience under ISO 22316, including the recovery plan of a maritime organization.
What sets this master's apart: it combines the human side of command, with leadership, stress management and communication, and a strong data side, in which predictive analytics and digital tools are used to anticipate scenarios rather than only react to them; it treats ethics, data privacy and the mitigation of bias as part of every decision; it applies the methods to natural disasters, technological failures, pandemics and maritime emergencies alike; and it closes with a Final Project in which you design an integrated crisis decision-making model based on predictive analysis and emerging technologies.
Program highlights
- Decisions under pressure: OODA and DECIDE frameworks, heuristics, cognitive biases and decision support systems.
- Predictive analytics: statistics, machine learning, explainable AI, Monte Carlo simulation and digital twins for crisis scenarios.
- Monitoring and early warning: big data, IoT sensors, GIS, remote sensing and dynamic risk maps.
- Risk and command: Sendai Framework, ISO 31000, NIST, multi-agency coordination, resource allocation and business continuity.
- Crisis communication: information protocols, spokespeople, social media, cybersecurity and ethics.
- Recovery and resilience: damage assessment, psychosocial support, lessons learned and ISO 22316.
Syllabus of the Master's in Crisis Management and Decision-Making in Emergencies
11 modules. Select a module to see its content.
Advanced strategies and predictive models for integrated crisis management and emergency decision-making
- 1.1. Foundations of integrated crisis management: definitions, types of crisis and critical phases
- 1.2. Predictive models and their use: statistical analysis, machine learning and artificial intelligence systems in emergencies
- 1.3. Developing crisis scenarios: multivariable simulation and probabilistic risk assessment
- 1.4. Advanced mitigation strategies: design and implementation of dynamic, adaptive plans for critical situations
- 1.5. Integrating geospatial information systems (GIS) and big data for real-time monitoring
- 1.6. Data-driven decision-making: frameworks (OODA, DECIDE) and optimization algorithms under pressure
- 1.7. Technology tools for crisis management: collaborative platforms, predictive dashboards and early warning systems
- 1.8. Strategic communication and information management in complex situations: managing uncertainty and multichannel communication
- 1.9. Post-crisis evaluation and analysis: key performance indicators, lessons learned and continuous improvement
- 1.10. International regulations and standards applied to emergency management and decision-making in critical contexts
Technological innovation and data analysis for an effective response to crises and emergencies
- 2.1. The current landscape of technological innovation in crisis management: trends, challenges and opportunities
- 2.2. Foundations of data analysis applied to emergencies: types of data, sources and information quality
- 2.3. Big data in emergency situations: capture, processing and storage of massive volumes of information
- 2.4. Advanced predictive analysis tools: machine learning, artificial intelligence and statistical modeling to anticipate critical scenarios
- 2.5. Integrating geographic information systems (GIS) and remote sensing for real-time monitoring and assessment
- 2.6. Development and use of collaborative digital platforms for inter-agency coordination and crisis communication
- 2.7. IoT (Internet of Things) sensors for early detection and dynamic tracking of emerging events
- 2.8. Protocols for processing massive data during emergencies: cleaning, validation and assurance of information integrity
- 2.9. Advanced data visualization: dashboards, interactive maps and simulation tools to support decision-making
- 2.10. Data management in multi-agency settings: interoperability, open standards and information security
Predictive models, technological innovation and data analysis for decision-making in crises and emergencies
- 3.1. Foundations of predictive models: definition, types and applications in crisis management
- 3.2. Machine learning and deep learning algorithms: supervised, unsupervised and neural networks and their implementation in emergency scenarios
- 3.3. Advanced big data analysis techniques for the early detection of critical events
- 3.4. Integrating IoT sensors into real-time monitoring systems: capture, processing and transmission of vital information
- 3.5. Technology architectures for building predictive models: cloud computing, edge computing and their impact on the speed of decision-making
- 3.6. Developing simulations and digital twins to anticipate complex disaster management scenarios
- 3.7. Explainable artificial intelligence (XAI): how to validate and trust automated predictions for critical decisions
- 3.8. Methods for validating and calibrating predictive models in dynamic, highly uncertain environments
- 3.9. Risk assessment through predictive analysis: quantification, prioritization and contingency planning
- 3.10. Collaborative platforms based on disruptive technologies to improve interoperability between emergency agencies
Tactical and operational crisis command: leadership in complex incidents, inter-agency coordination, resource management and continuity planning
- 4.1. Foundations of crisis leadership: contemporary theories applied to highly complex, volatile incidents
- 4.2. Advanced models of decision-making under pressure: heuristic analysis, cognitive biases and mitigation techniques in critical settings
- 4.3. Inter-agency coordination: design and implementation of communication and collaboration protocols between civil and military bodies and the private sector
- 4.4. Comprehensive resource management in emergencies: capability assessment, dynamic allocation and logistics optimization in multi-actor scenarios
- 4.5. Tactical and operational planning in complex incidents: agile methods for preparing, executing and adjusting response plans in real time
- 4.6. Building and leading multidisciplinary teams: strategies to strengthen performance, resilience and cohesion under high uncertainty
- 4.7. Information and communication technologies in crisis management: command and control systems, interoperable platforms and data analysis
- 4.8. Stress management and operational wellbeing: psychological techniques for leaders and teams in prolonged emergencies
- 4.9. Business continuity and essential operations planning: robust plans to ensure rapid, sustainable recovery after an incident
- 4.10. Advanced case studies: critical analysis of landmark incidents, lessons learned and best practice in tactical and operational command
Strategic communication and information management in crises: tools, protocols and real-time decision-making
- 5.1. Foundations of crisis communication: theories and models applied to emergency management
- 5.2. Information protocols: design and use of standardized structures for the efficient transmission of data in critical situations
- 5.3. Digital and technological tools for real-time monitoring and dissemination: communication platforms, alert systems and social media
- 5.4. Information management: collection, validation, analysis and distribution under pressure and in dynamic environments
- 5.5. The role of official spokespeople: training, media handling and strategic messaging to steer the public narrative
- 5.6. Real-time decision-making: advanced methods to assess risks, prioritize resources and anticipate scenarios using situational intelligence
- 5.7. Inter-agency integration: coordination between public, private and security bodies for fluid, consistent communication
- 5.8. Cybersecurity in crisis management: prevention, protection and response to cyberattacks that compromise information or critical infrastructure
- 5.9. Analysis of real cases and simulations of communication management in complex crises: applied learning and continuous improvement plans
- 5.10. Ethics and social responsibility in crisis communication: transparency, handling uncertainty and mitigating psychosocial impacts
Data analysis and predictive models for early intervention and an effective response to complex crises
- 6.1. Foundations of data analysis in crisis management: key concepts, types of data and primary and secondary sources in emergency settings
- 6.2. Advanced data collection and preprocessing tools: cleaning, normalization, imputation and anomaly detection in critical contexts
- 6.3. Descriptive and predictive statistical models applied to complex crises: regression, time series, survival analysis and multivariate analysis
- 6.4. Machine learning and artificial intelligence techniques for the early prediction of critical events: supervised and unsupervised algorithms, random forests, SVM and neural networks
- 6.5. Early warning systems based on predictive models: design, calibration, validation and dynamic adaptation to new sources of information
- 6.6. Risk assessment and prioritization of interventions through quantitative analysis: conditional probabilities, Monte Carlo simulation and scenario analysis
- 6.7. Integrating predictive models with geographic information systems (GIS) for real-time visualization and monitoring of crises
- 6.8. Automating and optimizing decision-making through computational intelligence: genetic algorithms, expert systems and fuzzy logic
- 6.9. Practical case studies: predictive models applied to natural disasters, pandemics, social conflict and technological failures
- 6.10. Ethical and legal aspects of data management during emergencies: privacy, information security and international regulations
Advanced strategies, predictive models and disruptive technologies for decision-making in crises and emergencies
- 7.1. Foundations of crisis management: definition, types, phases and essential characteristics in emergency contexts
- 7.2. Advanced models of decision-making under pressure: cognitive theories, heuristics, biases and their impact on operational effectiveness
- 7.3. Predictive models and simulation: predictive analysis, machine learning and statistical algorithms to anticipate crisis scenarios
- 7.4. Integrating big data and real-time analysis: data sources, processing, visualization and support for strategic decisions
- 7.5. Geographic information systems (GIS) and advanced georeferencing for tactical planning and response in emergencies
- 7.6. Disruptive technologies applied to crisis management: artificial intelligence, drones, IoT and blockchain to improve resilience and multisector coordination
- 7.7. Technology architectures and platforms for data and communications interoperability in multidisciplinary crisis operations
- 7.8. Development and evaluation of automated response protocols supported by predictive technologies and early warning systems
- 7.9. Decision support systems (DSS) and their configuration for dynamic, highly uncertain emergency settings
- 7.10. Applied case studies: analysis of complex incidents with a focus on technology implementation and organizational learning
Integrated risk and vulnerability management: assessment, mapping and effective response in highly complex scenarios
- 8.1. Fundamental concepts of integrated risk management: definitions, types and levels of analysis
- 8.2. Advanced methods for qualitative and quantitative risk assessment in complex environments
- 8.3. Vulnerability mapping tools: geographic information systems (GIS), multicriteria analysis and spatial modeling
- 8.4. Identification and characterization of natural, technological and social hazards in highly uncertain contexts
- 8.5. Developing dynamic risk maps for real-time visualization and updating of critical scenarios
- 8.6. International reference frameworks for risk and vulnerability management (Sendai Framework, ISO 31000, NIST)
- 8.7. Design and implementation of integrated plans for early response and adaptive mitigation
- 8.8. Protocols for inter-agency coordination and communication along chains of command during emergencies
- 8.9. Managing the crisis cycle: preparedness, response, recovery and continuous learning
- 8.10. Emerging technologies for monitoring and early warning of critical events (IoT, big data, artificial intelligence)
Advanced strategies, predictive models and disruptive technologies for decision-making in complex crises and high-complexity emergencies
- 9.1. Theoretical and practical foundations of advanced crisis management: definition, classification and analysis of multidimensional scenarios
- 9.2. Predictive models and stochastic simulation applied to emergency decision-making: modeling techniques, algorithms and real-time use
- 9.3. Artificial intelligence and machine learning as disruptive tools for anticipating and managing complex crises
- 9.4. Integrated decision support systems (DSS): architecture, interoperability and adaptability in dynamic, volatile environments
- 9.5. Big data and advanced analytics for risk assessment, pattern identification and resource optimization in critical situations
- 9.6. Implementing predictive analysis algorithms for early detection of emergencies and forecasting of future scenarios
- 9.7. Intelligent automation and robotics in the response to highly complex emergencies: drones, autonomous vehicles and remote systems
- 9.8. Integrating disruptive technologies: blockchain for traceability, IoT for real-time monitoring and advanced communications
- 9.9. Managing critical information under high uncertainty: protocols, cybersecurity and handling of sensitive data
- 9.10. Developing strategic plans based on predictive models: evaluation, validation and continuous adjustment through operational feedback
Recovery, lessons learned and organizational resilience
- 10.1. Phases of recovery after a crisis
- 10.2. Damage and needs assessment
- 10.3. Restoration of essential services
- 10.4. Psychosocial support for those affected and for response teams
- 10.5. Post-incident analysis
- 10.6. Lessons-learned methods
- 10.7. Updating plans and procedures
- 10.8. The ISO 22316 standard on organizational resilience
- 10.9. Resilience indicators
- 10.10. Recovery plan for a maritime organization
Final Project
- 11.1. Foundations and theoretical framework of crisis management: definitions, types and intervention models in complex emergencies
- 11.2. Advanced methods for developing integrated decision-making models: multicriteria analysis, decision theory under uncertainty and adaptive models
- 11.3. Integrating predictive analysis into crisis management: machine learning, big data and data mining techniques to anticipate critical events
- 11.4. Disruptive technologies in emergencies: artificial intelligence, IoT, drones and autonomous systems for real-time data collection and processing
- 11.5. Design and validation of early warning systems based on historical and real-time data: predictive algorithms and probabilistic models
- 11.6. Modular architecture of digital platforms for integrated incident management and collaborative decision-making under high pressure
- 11.7. Dynamic risk assessment through simulations and digital twins to visualize scenarios and support strategic crisis planning
- 11.8. Communication and inter-agency coordination protocols supported by disruptive technologies to improve interoperability and organizational resilience
- 11.9. Critical analysis and mitigation of cognitive biases in emergency decision-making using advanced computational support tools
- 11.10. Preparing the final project: design, implementation and presentation of an innovative crisis decision-making model based on advanced technology integration and predictive analysis, applied to real cases
Duration and format of the Master's in Crisis Management and Decision-Making in Emergencies
It is 1,500 hours. Tell us how many you can study each week and we will tell you when you will really finish.
This is the pace at which most students finish. It fits well with the installment plan.
Academic leadership and faculty
The Navalis teaching team: working professionals who teach and supervise the programs.
Dr. Marina AlcoverAcademic Director and Head of Quality Assurance
Eng. Diego CifuentesSenior Lecturer in Naval Welding and Non-Destructive Testing; Head of QA/QC for Welded Joints
Capt. Javier Abaroa (MCA)Senior Lecturer in Ship Handling, Electronic Navigation (ECDIS/Radar/ARPA) and GMDSS; STCW Compliance and Bridge Resource Management Coordinator
Dr. Pau FerrerSenior Lecturer in Naval Architecture and Simulation; Director of the Hydrodynamics and CFD Laboratory
Dr. Nuria LlobregatSenior Lecturer in Marine Meteorology, SAR and Operational Safety; Navigation Risk Management Coordinator
Eng. Javier BañulsSenior Lecturer in Electrical Engineering, Automation and ETO Engineering; Electronic Integration and Engine Alarms Coordinator
Eng. Sofía MarquinaSenior Lecturer in Materials, Composites and Corrosion Protection; Coordinator of the Advanced Paints and Coatings Line
Eng. Tomás RieraSenior Lecturer in Propulsion, Alternative Energy and Hybrid Systems; Energy Performance and Vibration CoordinatorObjectives of the Master's in Crisis Management and Decision-Making in Emergencies
Career opportunities after the Master's in Crisis Management and Decision-Making in Emergencies
Questions about the Master's in Crisis Management and Decision-Making in Emergencies
Developing the skills and knowledge needed to manage crises effectively and make strategic decisions in emergencies, from anticipation and response to recovery.
Public and private sector professionals responsible for risk management, security, civil protection, law enforcement, crisis communication and emergency services, as well as consultants and analysts.
No. The modules on predictive models, machine learning and GIS focus on understanding, validating and using these tools to make decisions, not on writing code.
Yes. One module covers information protocols, spokespeople and media handling, social media, inter-agency coordination, cybersecurity and the ethics of communicating under uncertainty.
Yes. The methods apply to any type of crisis, and the recovery module ends with the recovery plan of a maritime organization.
Through case studies, crisis simulations and practical exercises in each module and a Final Project in which you design an integrated crisis decision-making model, presented before a panel.
A master's issued by Navalis Institute, together with the risk maps, contingency plans and decision models you develop during the program.
Fully online, through a virtual campus available 24/7 with live sessions that are recorded, forums and tutorials. It comprises 1500 hours of study across 11 modules of about 136 hours each.
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Admission process
No waiting for a call back. If your documents are in order, you can enroll in the same session.
- Profile: aimed at public and private safety and security professionals, emergency managers and coordinators, decision-makers in government bodies and NGOs, risk and emergency consultants, and graduates in social sciences, health sciences, engineering or related fields. A degree in security, civil protection, social or health sciences, engineering or a related field, or demonstrable professional experience in emergency management, law enforcement or emergency services, is recommended; basic knowledge of risk management and emergency planning is helpful.
- Language: sufficient command of English to follow the classes and the technical documentation.
- Technical resources: a computer with a broadband internet connection, an up-to-date browser and, ideally, a microphone and webcam.
- Admission: online application, review of your profile and a short interview with the academic team.
- 01ApplicationYour details, background and documents.
- 02Instant reviewWe check that everything is complete and in order.
- 03EnrollmentChoose full payment or instalments and reserve your place.
Admission is provisional until the committee validates the documents provided. If you do not meet the requirements, the full amount is refunded.
Ask us before you enroll
Leave your details and admissions will write to you to answer any questions. If you are already sure, you can apply and pay in the same session.