Chapter, 2024

Developing an Urban Resource Cadaster for Circular Economy

Circular Economy for Buildings and Infrastructure 978-3-031-56240-2, 978-3-031-56241-9, Pages 83-95

Editors: Jian Zuo; Liyin Shen; Ruidong Chang

Series: Sustainable Development Goals Series ISSN 2523-3092, 2523-3084, 2523-3092, 2523-3084, Pages 83-95

Publisher: Springer Nature

DOI: 10.1007/978-3-031-56241-9_6

Contributors

Gummidi, Srinivasa Raghavendra Bhuvan 0000-0001-9374-9528 [1] Mao, Ruichang 0000-0001-5465-565X [2] Lanau, Maud 0000-0001-6315-2608 [3] Liu, Gang 0000-0002-7613-1985 (Corresponding author) [1] [4]

Affiliations

  1. [1] University of Southern Denmark
  2. [NORA names: SDU University of Southern Denmark; University; Denmark; Europe, EU; Nordic; OECD];
  3. [2] Tsinghua University
  4. [NORA names: China; Asia, East];
  5. [3] Chalmers University of Technology
  6. [NORA names: Sweden; Europe, EU; Nordic; OECD];
  7. [4] Peking University
  8. [NORA names: China; Asia, East]

Abstract

The ever-increasing pressure on resources has provided an impetus to the circular economy paradigm, especially in the construction sector. Unfortunately, the construction industry is not easily convinced about the implementation of circular economy strategies without a clear and dynamic overview of the materials demand and supply. An important perspective for such an overview is so called urban resource cadaster that characterizes the urban built environment stocks based on their location, type, quantity, and quality in high spatial and temporal resolution. In this chapter, we detailed the concept, methodology, use cases, and general implications of such an urban resource cadaster. Three case studies were presented based on integrating heterogeneous data through a Geographic information system-based bottom-up material stock analysis with sampled data on building material composition portfolios. The case studies involve the development of an urban resource cadaster for a city in a developed country (Odense, Denmark) and a city in a developing country (Beijing, China) and a global historical subway material stock analysis. Despite Beijing’s massive urban environment, the stock per capita is 140 tons in Beijing, compared to 329 tons per capita in Odense, Denmark. A spatially refined urban resource cadaster can provide a comprehensive overview of the built environment stock and thus assist the decision-makers in the construction industry and the governmental agencies for better urban planning and waste management.

Keywords

Beijing, Denmark, Odense, agencies, analysis, cadaster, case study, cases, circular economy, circular economy paradigm, circular economy strategies, circularity, city, composite portfolio, comprehensive overview, concept, construction, construction industry, construction sector, countries, data, decision-making, demand, developing countries, development, dynamic overview, economy, economy paradigm, economy strategies, environment, environment stocks, governmental agencies, heterogeneous data, implementation, implementation of circular economy strategies, industry, location, management, material demand, material stock analysis, materials, methodology, overview, paradigm, perspective, planning, portfolio, pressure, quality, quantity, resolution, resources, sample data, sector, stock, stock analysis, strategies, study, supply, temporal resolution, type, urban environment, urban planning, urbanization, waste, waste management

Data Provider: Digital Science