This course explores the features of complexity science. Our world is connected by an abundance of complex systems. Across all levels of organizations from physical, biological world to the social world, we may think of the connectivity between individual elements and how they interact and influence each other. For example, how humans transmit pandemics within a group, how cars interact in the traffic system and how networks connect in governmental organizations. Although these systems are diverse and different, they have surprisingly huge features in common.

Introduction to Complexity Science

Introduction to Complexity Science

Instructor: Cheong Siew Ann
Access provided by University of Western Australia
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There are 5 modules in this course
This week provides an overview of complex systems, explaining the evolution of complexity science, its applications in society, and the importance of gaining a basic understanding of the field. As complexity science is not a spectator sport, the module emphasizes that students must go beyond learning models and methods from lectures. You will be required to try these out to develop a practical feel for what they mean and what they can do. Accordingly, this week utilizes Jupyter Notebooks to facilitate two specific exercises, the Nagel-Schreckenberg model of vehicular traffic and the Game of Life.
What's included
8 videos3 readings2 assignments2 ungraded labs1 plugin
In this week, you will get a comprehensive understanding of robustness, resilience and sustainability. You will learn the self-organized criticality in the complexity system and self-similarity including the fractals, power law, universality and phase transition diagram. This week includes a case study of the subak system in Bali, which will help you further understand the tragedy of the commons. Lastly, you will get introduced to the resilience of a swarm.
What's included
6 videos1 reading
In this week, you will get a basic understanding of tipping point and regime shifts, and their applications in forecasting. You will understand the phase transition diagram, criticality and landau theory. Additionally, you will review examples on early warnings and forecasting in earthquakes and stock markets.
What's included
10 videos1 reading
In this week, you will learn about Agent-Based Modeling: what it is, how it works, why it is used and how to use it. Then, you will try a Jupyter Notebook exercise on Schelling’s Segregation Model. You will also learn how to build an ABM using qualitative data from observations and interviews and then validate and calibrate an ABM through examples. In the end, you'll review how to use ABM for policy assessment.
What's included
3 videos1 reading1 ungraded lab
In this week, you will get a comprehensive understanding of what a complex network is and how to measure on networks in terms of nodes and paths. You will get introduced to different types of random network and small-world networks that will help you have a better understanding. You will also discuss the robustness of a network, percolation transitions and real-world examples.Lastly, you will review complex networks and their attributes before looking at different network models.
What's included
10 videos1 reading1 assignment1 ungraded lab
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Reviewed on Nov 30, 2023
I preferred more projects to be added in the program.
Reviewed on May 18, 2022
The course provides an easy approach to a laymen to being exposed to the study of complexity science. This broadens and opens up insights to learning.
Reviewed on Jun 6, 2024
A lot of really interesting detail that you don't get in many other courses around complexity. I particularly liked learning about Soup-of-Groups.
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