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Game Theory I - Static Games

Justin Grana
Level: advanced
University: Santa Fe Institute
Platform: Complexity Explorer
Recurrence: always
Language: English
Discipline: Data Science
Attendance: free

Game theory is the standard quantitative tool for analyzing the interactions of multiple decision makers. Its applications extend to economics, biology, engineering and even cyber security. Furthermore, many complex systems involve multiple decision makers and thus a full analysis of such systems necessitates the tools of game theory. This course is designed to provide a high-level introduction to static, non-cooperative game theory. The main goal of this course is to introduce students to the idea of a Nash Equilibrium and how the Nash Equilibrium solution concept can be applied to a number of scenarios. Participants should be familiar with the concept of expected value and the basics of probability.

Syllabus:

  • What is Game Theory?
  • Elements of a Game and the Normal Form Representation
  • Nash Equilibrium
  • Two Examples - Dominant Strategies and Coordination Games
  • Mixed Strategy Nash Equilibrium
  • Brief Historical Interlude
  • A Calculus-Based Example
  • Bayesian Games: Introducing Uncertainty
  • Example: Cyber Security
  • Example: Tragedy of the Commons
  • Summary

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Comment from our editors:

While game theory is taught in undergraduate courses of most orthodox economic programms and often connected to the mainstream, it is also a crucial component to the foundations of complexity economics, as well as agent-based modeling. Game theory aims to analyze the behavior of individual agents in simple, closed situations with an observable set of agents and variables. These situations produce an outcome of interaction depending on the initially set conditions. So far, that does not seem all too different from the neoclassic utility maximzing individual. Yet, it introduces the crucial piece of uncertainity about the intentions and behaviors of others inside of the closed system. This can be taken further by adding uncertainty about the relevant variables for the decision and the number of possible actors with their different strategies which might change the game completely. Altogether, we can use game theory to arrive at something closer to complexity and computational approaches to model it.

If you want to get a deeper understanding of the complexity worldview, be sure to explore this free course and dive into the foundations of game theory!

 

 

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This project is brought to you by the Network for Pluralist Economics (Netzwerk Plurale Ökonomik e.V.).  It is committed to diversity and independence and is dependent on donations from people like you. Regular or one-off donations would be greatly appreciated.

 

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