A Critical Review of Academic Approaches, Methods and Tools to Assess Circular Economy at the Micro Level
Abstract
:1. Introduction
2. Overview of the Research Context
3. Materials and Methods
3.1. Clarification of Core Concepts
3.2. Systematic Literature Review
3.3. The Critical Review Framework
- (i)
- General perspective—the first perspective contains the general characteristics of the inventoried approaches.
- (ii)
- Descriptive perspective: Methodological connections—according to Reference [40], descriptive analysis engages with what has happened in the past to better understand current phenomena. The question becomes: ‘How has research constructed previous approaches to assess CE?’ This leads to evaluating the following methodological traits:
- Scale of assessment—the micro scale of evaluation still contains a variety of sub-scales, and no scientific consensus on its definition exists. The entire range of categories of different micro level scales of assessment has been included in the review.
- Sector specificity—since product- and firm heterogeneity appear not to have been addressed in detail in literature, sector specificity has been included as an element of interest in the descriptive dimension of the critical review framework. The type of sector was analyzed as well.
- Connection to existing methodologies (LCA/MFA/input-output analyses)—it will be valuable to explore how decades of knowledge on sustainability quantification, resulting in the development of widely used tools, are exhibited in newly introduced concepts such as CE. Therefore, the connections between CE assessment and LCA, S-LCA, LCC, MFA, and input–output analysis have been included. These methods were later completed by frequently occurring underlying methods that were used in combination with other methods (i.e., MCI).
- Case study and validation—to test the practical application of their proposed approaches, authors use case studies as a source for input data. The inventoried publications were screened for the application of a validation approach using case study data.
- (iii)
- Normative perspective: SD as the end goal of CE—reference [40] describe a normative model as “(…) an abstract system that attempts to capture how ideal people behave” (p. 17). In stakeholder theory, the concept of a ‘normative core’ has been described as explicitly moral, and an effort to answer questions such as: ‘What is the purpose of the firm?’ [41]. In the context of CE assessment, this results in the question: ‘What should the ideal outcome of applying CE be for the concept to be valuable?’ The concept of CE is here interpreted to be valuable only when providing a pathway to SD (see Section 2). Hereby, this study intends to address (valid) criticisms of CE that state that resource-efficiency measures do not lead to sustainable outcomes per se (see e.g., [21]). The present research refers to the model of sustainable development cited in [8], proposing SD indicators in the environmental, economic, and social domain. When other dimensions are included, it is checked whether these belong to any of these categories or are more suited to the separate ‘circular’ dimension, which could be seen as a box containing any resource-efficiency related dimensions.
- (iv)
- Prescriptive perspective: Participatory design and questions of implementation—lastly, reference [40] introduces the prescriptive decision-making model. This model addresses the question: “What should an individual do to make better choices? What modes of thought, decision aids, conceptual schemes are useful—useful not for idealized, mythical, de-psychologized automate—but for real people?” (p. 17). A very practical perspective that incorporates human—and organizational—limitations emerges. Three implementation-oriented prescriptive attributes are considered: The presence of providing operational guidance is assessed through using the search terms ‘implementation’, ‘practitioner’, ‘operational’, and ‘application’. The application of a participatory approach was assessed in three steps: (1) By reviewing whether the intended end-user of the approach is mentioned, (2) if so, what the characteristics of these end-users are, and (3) whether end-users were involved in the design of the proposed approach. The authors’ consideration of ease of communication is evaluated through searching for ‘simplicity’ and ‘communication’, ‘user friendly’, ‘intuitive’, and ‘visualization’.
4. Results
4.1. General Attributes
4.2. Descriptive Perspective: Methodological Attributes
4.3. Normative Perspective: SD as the End Goal of CE
4.4. Prescriptive Perspective: Participatory Construction and Questions of Implementation
5. Critical Reflection and Suggested Key Desired Properties
6. Conclusions
Author Contributions
Funding
Acknowledgments
Conflicts of Interest
Appendix A
Reference | Name Approach | Scale | Sector Specific | Connection to Methods | Case Study | Number of SD Dimensions/CE Dimension Included | Provides Operational Guidance | Intended End-User | Ease of Communication | Participatory |
---|---|---|---|---|---|---|---|---|---|---|
[101] | N/A | Various | No | No | No | 0/Yes | No | N/A | No | No |
[71] | PR-MCDT | Product | No | No | Yes | 3/Yes | Yes | Managers | No | Yes |
[102] | CPA (and CPI) | Product | No | No | Yes | 0/Yes | No | N/A | No | No |
[89] | REAPro | Product | No | Yes, LCA | Yes | 1/Yes | Yes | Various | No | No |
[72] | SCI | Company | No | Yes, MCI | No | 3/Yes | Yes | Managers | Yes | No |
[94] | e-BEP | Business model | No | Yes, LCA | Yes | 1/No | Yes | Other | Yes | Yes |
[73] | N/A | Business model | No | No | Yes | 3/Yes | Yes | Various | Yes | Yes |
[43] | N/A | Product | Yes | Yes, ISO 22628, UNIFE (MRF/ERF) | Yes | 0/Yes | No | Various | No | No |
[52] | N/A | Other | No | Yes, LCA, LCC, S-LCA | Yes | 3/Yes | No | Designers | No | No |
[65] | N/A | Supply chain | No | No | Yes | 0/Yes | No | (Specific) companies | No | No |
[74] | N/A | Company | No | Yes, LCA | Yes | 3/Yes | No | Managers | No | Yes |
[98] | CEIP | Product | No | No | Yes | 0/Yes | No | (Specific) companies | Yes | Yes |
[103] | N/A | Business model | No | No | No | 0/Yes | No | N/A | No | Yes |
[53] | CI | Plant/installation | Yes | Yes, LCA, MFA, multi-objective optimization | Yes | 0/Yes | No | Policy makers | No | Yes |
[84] | N/A | Product | Yes | Yes, LCA | No | 1/Yes | No | N/A | No | No |
[104] | CEV | Other | No | Yes, MCI and the Korse model | Yes | 0/Yes | No | N/A | No | No |
[75] | N/A | Business model | No | No | No | 3/Yes | No | N/A | No | No |
[96] | CEI/KRI | Product | Yes | No | Yes | 1/Yes | No | Policy makers | No | No |
[97] | VRE | Other | No | No | Yes | 1/No | No | Policy makers | Yes | No |
[92] | Various | Various scales | No | Yes, LCA | No | 1/No | No | N/A | No | No |
[83] | Environmental-economic assessment | Other | No | Yes, LCA | Yes | 2/No | No | N/A | No | No |
[68] | RSI | Company | Yes | Yes, LCA | No | 3/Yes | No | N/A | Yes | No |
[81] | N/A | Product | No | No | Yes | 2/Yes | No | Designers | No | No |
[105] | N/A | Company | No | No | Yes | 0/Yes | No | Various | No | No |
[100] | Repairability Indicator | Product | Yes | No | Yes | 0/Yes | No | Other | No | Yes |
[106] | CEV | Other | No | No | Yes | 0/Yes | No | N/A | No | No |
[107] | N/A | Product | No | No | No | 0/Yes | No | Various | No | No |
[108] | Longevity indicator | Product | No | Yes, MFA | Yes | 0/Yes | No | Managers | No | No |
[54] | N/A | Other | Yes | Yes, LCA, LCC | Yes | 2/No | No | Designers | No | No |
[55] | LCA, SLCA, LCC and CBM | Business model | No | Yes, LCA, LCC, S-LCA | Yes | 3/No | Yes | Managers | Yes | No |
[76] | CMT | Company | No | No | Yes | 3/Yes | Yes | N/A | No | No |
[45] | Hybrid LCA | Supply chain | No | Yes, LCA, EIO | Yes | 1/Yes | No | Policy makers | No | No |
[47] | N/A | Product | Yes | Yes, ‘Streamlined’ LCA | Yes | 1/Yes | No | N/A | No | No |
[44] | N/A | Supply chain | Yes and No | Yes, Fuzzy Cognitive Mapping | Yes | 3/Yes | No | Policy makers | No | No |
[48] | N/A | Material | Yes | Yes, CED | No | 1/Yes | Yes | Designers | No | No |
[109] | N/A | Company | No | No | No | 0/Yes | Yes | Companies | No | No |
[56] | RBR | Material | Yes | Yes, LCA, RBR, RCBR | Yes | 1/No | No | N/A | No | No |
[69] | N/A | Business model | Yes | Yes, LCA | Yes | 3/Yes | No | Companies | No | No |
[70] | N/A | Product | Yes | No | Yes | 3/Yes | No | Other | No | No |
[77] | N/A | Supply chain | No | Yes, LCA | No | 3/Yes | Yes | Various | No | No |
[57] | N/A | Plant/installation | Yes | Yes, LCA, MFA | Yes | 0/Yes | No | Various | No | No |
[110] | N/A | Business model | No | No | Yes | 0/Yes | No | Other | No | No |
[58] | N/A | Other | No | Yes, LCA, MFA, CTA, I/O analysis, LCC, CBA | Yes | 3/Yes | No | Other | No | No |
[78] | N/A | Company | No | No | No | 3/Yes | No | Decision makers | No | No |
[66] | N/A | Business model | No | No | Yes | 3/Yes | No | Companies | No | No |
[62] | PWF | Product | No | Yes, LCA | Yes | 0/Yes | No | Other | Yes | No |
[82] | N/A | Product | No | No | Yes | 2/Yes | No | Designers | Yes | Yes |
[85] | CE Evaluation Index System | Company | Yes | Yes, QUALIFLEX & VIKOR | Yes | 1/Yes | No | Decision makers | No | No |
[93] | EnvPack | Packaging | Yes | Yes, LCA | Yes | 1/No | No | Various | No | No |
[13] | Product-level circularity | Product | No | No | Yes | 1/No | No | N/A | No | No |
[95] | EVPT (Environmental Value Propositions Table) + step-by-step evaluation. | Business model | No | Yes, LCA | Yes | 1/No | Yes | Companies | No | No |
[51] | N/A | Business model | No | No | Yes | 0/Yes | No | Various | No | No |
[111] | N/A | Product | No | Yes, LFI by EMF | Yes | 0/Yes | Yes | Various | No | Yes |
[15] | MRS, MCI, LCA, MDCDA | Packaging | Yes | Yes¸ LCA, MRS and MCI | Yes | 1/Yes | No | N/A | No | No |
[80] | N/A | Supply chain | Yes | Yes, Fuzzy set theory | Yes | 2/Yes | No | Decision makers | Yes | Yes |
[112] | Reuse potential | Material | No | No | Yes | 0/Yes | No | Various | Yes | No |
[86] | N/A | Packaging | Yes | Yes, LCA | No | 1/Yes | No | Designers | No | No |
[59] | Dashboard of quantitative system indicators | Company | No | Yes, LCA, MFA, LCC, S-LCA | No | 3/Yes | Yes | N/A | No | No |
[113] | N/A | Company | No | No | No | 0/No | Yes | (Specific) companies | Yes | Yes |
[46] | LCA and MFCA | Company | No | Yes, LCA, MFCA | Yes | 2/No | Yes | Various | Yes | Yes |
[67] | N/A | Company | No | No | Yes | 3/Yes | No | Companies | Yes | Yes |
[99] | Hybrid top-down and bottom-up framework | Product | No | No | Yes | 0/No | Yes | Other | Yes | Yes |
[90] | EVR & CTF | Business model | No | Yes, LCA | Yes | 1/Yes | No | N/A | No | No |
[87] | N/A | Packaging | Yes | Yes, LCA | Yes | 1/Yes | No | Various | No | Yes |
[42] | E-factor, PMI, RME, LCA | Product | Yes | Yes, LCA, E-factor | Yes | 1/Yes | No | N/A | No | No |
[88] | N/A | Supply chain | No | Yes, Fuzzy set theory | Yes | 1/Yes | Yes | Decision makers | No | No |
[64] | QC | Material | No | No | Yes | 0/Yes | No | Various | No | No |
[50] | RDI | Product | No | Yes, MSI, TRL | Yes | 1/Yes | No | Various | No | Yes |
[114] | RI | Product | No | No | Yes | 0/Yes | No | Various | Yes | No |
[60] | N/A | Plant/installation | Yes | Yes, LCA, NPV, IRR, questionnaire on stakeholder perception | Yes | 3/No | No | Policy makers | No | Yes |
[63] | eDIM | Product | No | No | Yes | 0/Yes | Yes | Policy makers | Yes | No |
[79] | ‘Expanded Zero Waste’ | Various scales | No | Yes, LCA | No | 3/Yes | No | N/A | No | No |
[61] | Building Circularity Indicator | Other | Yes | Yes, LCA, EPD | Yes | 2/Yes | No | N/A | No | Yes |
[91] | N/A | Other | No | Yes, LCA | Yes | 1/No | No | (Specific) Companies | No | Yes |
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References | Number of Inventoried Approaches | Summary and Differences/Common Aspects with the Review here Proposed |
---|---|---|
[23] | 72 | Zooms in on ‘validity’, ‘reliability’, and ‘utility’ of metrics, and connection to existing methodologies (Life Cycle Assessment (LCA)/Material Flow Analysis (MFA), no focus on micro level. |
[24] | 30 | Focus on micro level, zooming in on ‘CE categories’ and connection to Sustainable Development (SD) dimensions. Less attention for implementation perspective. Also includes grey literature. |
[29] | 20 | Introduces classification framework for CE indicators, both on macro- as well as micro level. Addresses different CE strategies captured by indicators. |
[28] | 63 | Applies Multiple Correspondence Analysis (MCA) to assess metrics. No distinction between different levels of assessment. |
[12] | 55 | Proposes intricate taxonomy of indicators, applying 10 differentiation categories. |
[30] | 45 | Collects and reviews CE performance assessment methods. Primary focus on methodological foundation. No specification of level of assessment. |
Inclusion Criteria | Exclusion Criteria |
---|---|
Academic literature | Grey literature approaches |
Micro level approaches | Meso or macro level approaches |
Newly proposed CE assessment approaches (i.e., not based on conventional methodologies) | Conventional LCA, Life Cycle Costing (LCC), Social Life Cycle Assessment (S-LCA) studies, eco-design or eco-innovation studies |
Approaches that combine or expand existing methodologies or indicators to propose new CE assessment approaches | Conventional eco-design, eco-innovation, and general sustainability assessment-oriented studies |
Applications of existing CE indicators such as Material Circularity Indicator (MCI) |
Perspective | Goal | Attribute | Analyzed Characteristic |
---|---|---|---|
(i) General | To describe published approaches’ general characteristics | Age | Year of publication |
Peer-reviewed | Yes/No | ||
Source | Name of journal, book, or other sources | ||
Country | Country of home university of author | ||
Name and abbreviation | Name and abbreviation of the approach | ||
(ii) Descriptive | To assess methodologies underlying the inventoried approaches | Scale of assessment | Determine scale of application within ‘micro level’, establish categories of scale of application |
Sector specificity | Determine whether the approaches are designed to be applied in a specific sector, and, if so, document which sector | ||
Connection to existing methodologies | Determine methodological connections by applying search terms ‘LCA’, ‘MFA’, ‘input output’, ‘MCI’. Complement after in-depth review of approaches | ||
Application of case study validation | Screen publications for occurrence of application of proposed approaches in case study setting | ||
(iii) Normative | To obtain a better understanding of connections to the three dimensions of SD | Inclusion of the three SD dimensions | Determine whether and how the environmental, economic, and social dimensions of SD are considered |
Inclusion of ‘CE’ dimensions | Determine whether and how ‘CE’ (resource-related) dimensions are considered | ||
(iv)Prescriptive | To evaluate the presence of implementation considerations and inclusion of end-user needs | Providing operational guidance | Does the publication mention ‘implementation’, ‘practitioner’, ‘operational’, or ‘application’? |
Participatory approach | Is the end-user mentioned? | ||
If so, who is the intended end-user? | |||
Are the end-user or other stakeholders involved in the design of the evaluation approach? | |||
Ease of communication | Does the publication mention ‘simplicity’ or ‘communication’? |
Scale | Approaches (N.) | General (N.) | Detailed (N.) |
---|---|---|---|
Product | 22 | Product (16) | Chemicals (1), energy-related product (1), gypsum product (1), automotive vehicle (1), product family (1), end-of-life product (1) |
Company | 12 | Company (9) | Small and Medium-sized Enterprise (SME) (2), Circular Economy initiative (1) |
Business model | 11 | Business model (6) | Product-Service System (5) |
Other | 9 | - | Building (2), component (1), technology (1), sector/industry (1), farm (1), event (1), strategy (1), innovation (1) |
Supply chain | 6 | Supply chain (6) | - |
Material | 4 | Material (2) | Biobased polymers (1), waste (1) |
Packaging | 4 | Product packaging (3) | Packaging chain (1) |
Plant/installation | 3 | - | Treatment plant (1), installation (1), Wastewater Treatment (WWT) plant (1) |
Various scales | 3 | - | Materials and products (1), products, services, or processes (1), company or strategy (1) |
Total | 74 | 42 | 32 |
Connection with… | Number of Approaches |
---|---|
LCA | 32 |
LCA | 18 |
LCA + other methods | 14 |
MFA | 5 |
Fuzzy set theory | 3 |
MCI | 3 |
Other methods | 15 |
No connection to other methods | 31 |
Reference | Method |
---|---|
[52] | LCA, LCC, S-LCA |
[53] | LCA, MFA, multi-objective optimization |
[54] | LCA, LCC |
[55] | LCA, LCC, S-LCA |
[45] | LCA, Environmental Input-Output (EIO) |
[56] | LCA, Recyclability Benefit Rate (RBR), Recycled Content Benefit Rate (RCBR) |
[57] | LCA, MFA |
[58] | LCA, MFA, Constructive Technology Assessment (CTA), input-output analysis, LCC, Cost-Benefit Analysis (CBA) |
[15] | LCA, Material Reutilization Score (MRS), MCI |
[59] | LCA, MFA, LCC, S-LCA |
[46] | LCA, Material Flow Cost Accounting (MFCA) |
[42] | LCA, E-factor |
[60] | LCA, Net Present Value, Internal Rate of Return, questionnaire on stakeholder perception |
[61] | LCA, Environmental Product Declaration |
References | Environment | Economic | Social | Circular | Number of Approaches |
---|---|---|---|---|---|
[47,52,58,59,66,67,68,69,70,71,72,73,74,75,76,77,78,79] | X | X | X | X | 18 |
[55,60] | X | X | X | 2 | |
[61,80,81,82] | X | X | X | 4 | |
[46,54,83] | X | X | 3 | ||
[15,42,44,45,48,84,85,86,87,88,89] | X | X | 11 | ||
[50] | X | X | 1 | ||
[56,90,91,92,93,94,95] | X | 7 | |||
[13,96,97] | X | 3 | |||
[43,51,53,57,62,63,64,65,98,99,100,101,102,103,104,105,106,107,108,109,110,111,112,113,114] | X | 25 | |||
45 | 31 | 20 | 59 | 74 |
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Roos Lindgreen, E.; Salomone, R.; Reyes, T. A Critical Review of Academic Approaches, Methods and Tools to Assess Circular Economy at the Micro Level. Sustainability 2020, 12, 4973. https://doi.org/10.3390/su12124973
Roos Lindgreen E, Salomone R, Reyes T. A Critical Review of Academic Approaches, Methods and Tools to Assess Circular Economy at the Micro Level. Sustainability. 2020; 12(12):4973. https://doi.org/10.3390/su12124973
Chicago/Turabian StyleRoos Lindgreen, Erik, Roberta Salomone, and Tatiana Reyes. 2020. "A Critical Review of Academic Approaches, Methods and Tools to Assess Circular Economy at the Micro Level" Sustainability 12, no. 12: 4973. https://doi.org/10.3390/su12124973
APA StyleRoos Lindgreen, E., Salomone, R., & Reyes, T. (2020). A Critical Review of Academic Approaches, Methods and Tools to Assess Circular Economy at the Micro Level. Sustainability, 12(12), 4973. https://doi.org/10.3390/su12124973