Path Catalog
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Path Catalog
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A comprehensive graduate-level path to mastering research methods in complexity science, covering foundational theory, modeling approaches, validation, interdisciplinary research, communication, and ethics. Designed for aspiring researchers, it emphasizes rigorous methodology and practical application.
This learning path equips engineering students with the knowledge and skills to design, analyze, and manage complex engineered systems. It covers foundational concepts of complexity, systems thinking, and resilience, then applies them to engineering design and robust system development. The path emphasizes practical approaches for handling complexity in real-world engineering contexts.
This advanced graduate-level path introduces complexity science concepts and methods for understanding human systems, including human dynamics, cognition, culture, collective intelligence, and human-machine systems. It progresses from foundational complexity theory to domain-specific applications, emphasizing cross-disciplinary connections and practical modeling approaches.
This graduate-level path equips data scientists with the conceptual and practical tools to study complex systems through data. It covers the foundations of complexity science, data-driven modeling, pattern discovery, and predictive modeling, culminating in a capstone project where learners apply these methods to real-world data.
This advanced learning path explores the intersection of complexity science and artificial intelligence. It covers foundational concepts in complex systems, the nature of AI as a complex system, emergent AI behaviors, and the use of AI for modeling and analyzing complex systems. Designed for graduate students and researchers, the path emphasizes conceptual depth and cross-disciplinary integration.
This path provides a rigorous, interdisciplinary introduction to artificial life (ALife) within the broader context of complexity science. It moves from foundational concepts in complex systems and biological self-organization to core ALife methodologies such as agent-based modeling, evolutionary computation, and artificial chemistries, culminating in applications and contemporary research frontiers. Designed for advanced graduate students with an interest in the conceptual and computational underpinnings of life-as-it-could-be.
A professional learning path for computational complexity scientists to master essential software tools, including NetLogo, Python and R packages, simulation platforms, and visualization techniques. The path progresses from foundational programming and complexity concepts to advanced simulation and analysis workflows, culminating in a capstone project.
This advanced learning path equips researchers with the knowledge and skills to conduct interdisciplinary research in complexity science. It covers foundational theories of complex systems, methodological integration, collaborative research practices, and strategies for bridging disciplines, culminating in a capstone project.
This learning path equips practitioners with the skills to communicate complex systems science effectively to diverse stakeholders. It covers foundational complexity concepts, core communication principles, and practical techniques for visualization and stakeholder engagement, culminating in a capstone project.
This learning path equips practitioners with the conceptual tools to identify, analyze, and address ethical challenges arising in complexity science. It covers the foundations of complex systems, the ethical dimensions of modeling, the responsibilities of scientists in communicating uncertainty, and the dual-use implications of research. The path emphasizes practical application through case studies and reflection, preparing professionals to integrate ethical reasoning into their work.