Analyzing the Critical Success Factors for Industrial Symbiosis—A Chinese Perspective

Li, Yongbo; Pinto, Mark Christhian Barrueta

doi:10.1007/978-981-33-4320-7_3

Cited by 3 publications

(1 citation statement)

References 14 publications

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“…It involves two mechanisms: backward snowballing (i.e., scanning the document text and reference list of the initial sample to identify relevant studies) and forward snowballing (i.e., tracking the articles that cited the initial sample of the relevant studies, using "citing articles" function in Scopus) (Wohlin, 2014). (Mignacca & Locatelli, 2021) 11 (Singhal et al, 2020) 33 (Medina & Fu, 2021) 12 (Julianelli et al, 2020) 34 (Salmenperä et al, 2021) 13 (Bhatia et al, 2020) 35 (Benz, 2022) 14 (Ferasso et al, 2020) 36 (Hina et al, 2022) 15 (Khan et al, 2020) 37 (Kayikci et al, 2022) 16 (Donner et al, 2021) 38 (Seles et al, 2022) 17 (Dulia et al, 2021) 39 (Goyal et al, 2022) 18 (Torres-Guevara et al, 2021) 40 (Wuni & Shen, 2022) 19 (Li & Pinto, 2021) 41 (Giorgi et al, 2022) 20 (Gupta & Singh, 2021) 42 (Huang et al, 2022) 21 (Cantú et al, 2021) 43 (Többen & Opdenakker, 2022) 22 (Tseng et al, 2021) The additional articles derived from the snowballing search became subjects of another forward and backward snowballing until now new articles were identified. The snowballing search strategy generated 13 additional articles, increasing the final sample size to 43 articles.…”

Section: Data Collectionmentioning

confidence: 99%

A systematic review of the critical success factors for implementing circular economy in construction projects

Wuni¹

2022

Sustainable Development

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The transition to a circular economy in the construction industry provides enormous opportunities to decouple construction activities, processes, and practices from finite consumption of natural resources and environmental externalities. Circular construction leverages the interconnected models of narrowing, slowing, and closing resource loops to minimize extractive and wasteful use of natural resources, eliminate waste and pollution from the outset, and retain construction products and materials in use for a longer duration. However, construction practitioners have struggled to implement circular economy principles into construction projects successfully. This study systematically reviewed the critical success factors for implementing circular construction projects. The results revealed 51 critical success factors for circular construction projects, clustered into six typologies: technological (n = 10, Σ = 93, μ = 9.30), supply chain (n = 14, Σ = 84, μ = 6.00), organizational (n = 9, Σ = 82, μ = 9.11), institutional (n = 7, Σ = 43, μ = 6.14), stakeholder success (n = 7, Σ = 73, μ = 10.43), and management success factors (n = 4, Σ = 27, μ = 6.75). A Pareto analysis revealed 30 vital critical success factors for circular construction projects. Thus, the study established the first comprehensive set of critical success strategies for circular construction projects and enriches the knowledge of construction organizations and project team members on how best to implement circular economy principles in construction projects.

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Section: Data Collectionmentioning

confidence: 99%

A systematic review of the critical success factors for implementing circular economy in construction projects

Wuni¹

2022

Sustainable Development

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Circular Intuitionistic Fuzzy Sets in Multi Criteria Decision Making

Çakır

Ulukan

2022

Lecture Notes in Networks and Systems

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Exploring challenges in implementing sustainable energy solutions and green tourism for eco-industrial parks in China

Chen,

Liu,

Ahmed

2024

Journal of Renewable and Sustainable Energy

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The effort to integrate sustainable energy and promote green tourism within China's Eco-Industrial Parks (EIPs) is a crucial move toward balancing industrial development with ecological sustainability. As the world's largest producer and consumer of energy, China's industrial sector significantly impacts global environmental health. Integrating sustainable energy within EIPs not only aims to reduce the carbon footprint and mitigate climate change but also enhances opportunities for sustainable tourism practices. This research uses a thorough methodology that combines the Delphi method and the Fuzzy Analytical Hierarchy Process (AHP) method to systematically evaluate and rank the challenges associated with sustainable energy integration and green tourism for EIPs in China. Through an iterative Delphi approach, five main challenges and 20 related sub-challenges have been identified. The Fuzzy AHP approach was utilized to analyze and assign weights to these challenges, providing insight into their relative importance to the adoption of sustainable energy into EIPs to promote green tourism practices. The most important aspect is economic viability (C1), according to the results of fuzzy AHP. The next major hurdles are recognized as the regulatory frameworks (C4) and socio-cultural acceptance (C2). Examining the underlying sub-challenges, the task of calculating return on investment metrics (C12) came up as the most weighted. Significant sub-challenges were also identified, including regulatory incentives for clean energy deployment (C41) and overcoming societal resistance (C21). This insight guides researchers, industry stakeholders, and policymakers in creating targeted interventions to promote the integration of sustainable energy and green tourism within China's EIPs.

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Analyzing the Critical Success Factors for Industrial Symbiosis—A Chinese Perspective

Cited by 3 publications

References 14 publications

A systematic review of the critical success factors for implementing circular economy in construction projects

A systematic review of the critical success factors for implementing circular economy in construction projects

Circular Intuitionistic Fuzzy Sets in Multi Criteria Decision Making

Exploring challenges in implementing sustainable energy solutions and green tourism for eco-industrial parks in China

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