The Dynamics of Nestedness Predicts the Evolution of Industrial Ecosystems
Sebastian Bustos, Charles Gomez, and Ricardo Hausmann, Cesar A., Hidalgo

TL;DR
This paper investigates the nested structure of global industrial networks, showing their stability and predictability, and linking these properties to economic development models emphasizing capability heterogeneity and input complementarity.
Contribution
It demonstrates that nestedness in industrial networks is stable over time and can be predicted, providing insights into economic development through a neutral model emphasizing heterogeneity.
Findings
Nestedness remains stable as networks fill over time.
High nestedness can be reproduced by the neutral model with heterogeneity.
The appearance and disappearance of industries are predictable.
Abstract
In economic systems, the mix of products that countries make or export has been shown to be a strong leading indicator of economic growth. Hence, methods to characterize and predict the structure of the network connecting countries to the products that they export are relevant for understanding the dynamics of economic development. Here we study the presence and absence of industries at the global and national levels and show that these networks are significantly nested. This means that the less filled rows and columns of these networks' adjacency matrices tend to be subsets of the fuller rows and columns. Moreover, we show that nestedness remains relatively stable as the matrices become more filled over time and that this occurs because of a bias for industries that deviate from the networks' nestedness to disappear, and a bias for the missing industries that reduce nestedness to…
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Taxonomy
TopicsEconomic and Technological Innovation · Evolutionary Game Theory and Cooperation · Sustainability and Ecological Systems Analysis
