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Published on: November 22, 2019
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Summary
Big data offers new solutions for urban planning challenges by applying engineering principles. However, comprehensive urban planning remains computationally intractable, highlighting cities as self-organizing networks where data facilitates coordination and learning.
Area of Science:
- Urban Studies
- Computational Social Science
- Data Science
Background:
- Cities generate vast amounts of data, creating opportunities for improved management and planning.
- Traditional urban planning faces challenges due to the complexity and scale of modern cities.
Purpose of the Study:
- To explore the utility of big data in urban planning by framing it as a computational problem.
- To investigate how data-driven urban policy can address persistent urban issues.
- To reconcile the need for urban planning with its computational intractability in large cities.
Main Methods:
- Formalizing urban planning as a computational problem.
- Analyzing the application of big data and urban policy through engineering principles.
- Conceptualizing cities as self-organizing social networks.
Main Results:
- Big data, combined with urban policy, can offer novel solutions to urban problems.
- Comprehensive urban planning is computationally intractable for large cities, irrespective of data volume.
- Cities function as self-organizing networks where big data's primary role is to enhance information flow and coordination.
Conclusions:
- Big data facilitates learning and coordination among individuals in self-organizing urban networks.
- Urban self-organization and service improvement require general principles for sustainable city evolution.
- Data and information technologies are crucial for effective urban policy, fostering development and innovation.
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