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2 - Agent-based Models of Coupled Social and Natural Systems

Published online by Cambridge University Press:  13 March 2020

Neil Sang
Affiliation:
Swedish University of Agricultural Sciences
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Summary

Agent-based models are dynamic computer simulations that explicitly represent the interactions of heterogeneous individuals. Interest in such models stems from a number of disciplines. Some economists see agent-based models as enabling them to escape the restrictive assumptions of human rationality needed for tractable mathematical analysis under the classical paradigm, among other reasons (Axtell, 2000). Indeed, the broad affiliation of disciplines interested in a ‘complex systems’ perspective, in which systems of multiple interacting heterogeneous elements generate ‘emergent’ structure and order at the aggregate scale, offers a new metaphor for understanding economic systems. Arthur, Durlauf and Lane’s (1997) introduction to The Economy as a Complex Evolving System, for example, cites various features of real economic systems that are challenging to classical analysis, but entirely natural from a complex systems perspective: e.g. out-of-equilibrium dynamics, dispersed interaction and the lack of a global mediator. Agent-based models are closely aligned conceptually to a complex systems view of the world. Broader interest in agent-based modelling in the social sciences is derived from its perceived potential as a ‘third way’ between the quantitative and qualitative camps (Moss, 1999). The conceptual chasm between these two is often overemphasised, with most pragmatic social scientists willing to adopt mixed-methods approaches to case studies, but if seen as a formal environment in which to explore the dynamic outcomes of more assumptions than the human mind can reason with logically, agent-based models offer qualitative social scientists new tools to explore their findings, which can potentially be fitted to data gathered and analysed by quantitative social scientists. Geographers are interested in agent-based models because they can be used to represent space explicitly.

Type
Chapter
Information
Modelling Nature-based Solutions
Integrating Computational and Participatory Scenario Modelling for Environmental Management and Planning
, pp. 56 - 81
Publisher: Cambridge University Press
Print publication year: 2020

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