Employing criteria scoring matrix in appraising the economic return of transcending to a circular built environment

Abstract

Purpose

The circular economy concept emerged as the resolution to the destructive linear economy practices. Nevertheless, the transition to a circular built environment is hindered due to the ambiguities of the economic value of the concept. Conversely, numerous decision-making tools are applied in the construction industry in assessing economic alternatives, even if there is a gap in utilising these tools in appraising circular economic practices. Hence, this study investigates the potential benefits of applying proven decision-making practices, particularly criteria scoring matrices, in developing circular built environments.

Design/methodology/approach

A qualitative approach was followed to achieve the aim of the study. A conceptual design of a criteria scoring matrix was developed with a comprehensive literature survey. Semi-structured interviews of a three-round Delphi expert survey were employed to assess the matrix qualitatively and develop the matrix further. Data were analysed using the content analysis method.

Findings

The lack of a value assessment tool in economically assessing the circular economy principles is a key barrier to transcending to a circular built environment. In addressing this issue, this study develops a criteria scoring matrix for circularity value assessment during the design stage of a construction project.

Originality/value

This research contributes to the theory by developing a criteria scoring matrix to measure the economic contribution of circular economy principles. Further, this research contributes to the practice by allowing construction alternatives to be selected, balancing the potential economic return options of a project with the project's contribution to a circular economy.

Citation

Atapattu, A.M.D.S., Hadiwattage, C., Perera, B.A.K.S. and Rajaratnam, D. (2024), "Employing criteria scoring matrix in appraising the economic return of transcending to a circular built environment", Smart and Sustainable Built Environment, Vol. 13 No. 2, pp. 267-290. https://doi.org/10.1108/SASBE-04-2023-0077