Evaluating the Potential Business Benefits of Ecodesign Implementation: A Logic Model Approach
Abstract
:1. Introduction
2. Theoretical Background
2.1. The Ecodesign Maturity Model (EcoM2)
2.1.1. The EcoM2 Practices
2.1.2. The EcoM2 Maturity Levels
- Capability level 1 (incomplete) means that a practice is not contemplated by the company or is partly applied in incomplete way;
- Capability level 2 (ad hoc) means that a practice is only applied to accomplish specific tasks or correct targeted problems, i.e., in an ad hoc format;
- Capability level 3 (formalized) means that the practice is formalized and documented in processes, with allocated resources, infrastructure and responsibilities;
- Capability level 4 (controlled) means that the management practice has its performance measured and constantly controlled with the application and use of process-related indicators;
- Capability level 5 (improved) means that the management practice has its performance continuously improved over time, based on measurement and monitoring.
2.1.3. The EcoM2 Application Method
- the diagnosis involves the definition of the company’s current maturity profile, whose main output is the current capability levels of the management practices;
- the definition of a vision for improved maturity, according to a corporate vision and strategic drivers, and whose main output is the desired capability levels for the management practices and
- the deployment of actionable roadmaps for implementation, based on the identified gap between the current capability levels (Step 1) and desired capability levels (Step 2).
2.2. Logic Models: The Structure Underpinning the Business Case Rationale
3. Research Methodology
3.1. Phase 1: Development of a Theoretical Logic Model Framework
3.2. Phase 2: Instantiation of an Ecodesign-Specific Logic Model Framework
3.3. Phase 3: Evaluation of the Ecodesign-Specific Logic Model Framework
4. Results and Discussion
4.1. Results and Discussion from the Development of a Theoretical Logic Model Framework (Phase 1)
4.2. Results and Discussion from the Instantiation of the Ecodesign-Specific Logic Model Framework (Phase 2)
4.2.1. Instantiating the Activities of the Ecodesign-Specific Logic Model
4.2.2. Instantiating the Outputs and Initial Outcomes of the Ecodesign-Specific Logic Model
4.2.3. Instantiating the Business Performance Outcomes of the Ecodesign-Specific Logic Model
4.3. Results and Discussion from the Evaluation of the Ecodesign-Specific Logic Model Framework (Phase 3)
4.3.1. Summary of the Evaluation of the Ecodesign-Specific Logic Model Framework
4.3.2. The Strengths of the Logic Model Approach for Deriving Ecodesign Business Cases
4.3.3. The Weaknesses of the Logic Model Approach for Deriving Ecodesign Business Cases
4.3.4. What Is Next? Applying the Ecodesign-Specific Logic Model Framework in Companies
5. Final Remarks
5.1. Contributions to the Literature
5.2. Limitations and Future Research
Supplementary Materials
Author Contributions
Funding
Acknowledgments
Conflicts of Interest
References
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Cluster | Thematic Cluster | Number of Practices | Example of Practice [16,19,42] | Outputs | Initial Outcomes |
---|---|---|---|---|---|
1 | Environmentally-enhanced technological strategy | 5 practices | Identify and/or develop new technologies that can contribute to improve the environmental performance of the developed products [16,19,42] | New environmentally-enhanced technologies | Products with environmentally-enhanced technology |
2 | Development of support processes, training and knowledge for ecodesign | 4 practices | Get knowledge of how to develop products with a better environmental performance [16,19,42] | Ecodesign knowledge | Environmentally-enhanced products |
Informed/conscious environmental-related decisions | |||||
Systematized trade-off analysis | |||||
3 | Incentives and awareness for ecodesign | 2 practices | Develop a “green” incentive scheme for the development of products with increased environmental performance [16,19,42] | Incentive schemes for ecodesign | Employee motivation, engagement and productivity |
4 | Marketing and communication for ecodesign | 2 practices | Elaborate and communicate recommendations to consumers on how to improve the environmental performance of the product during the use and end-of-life phases [16,19,42] | Recommendations to consumers | Consumer engagement and retention |
Employee motivation, engagement and productivity | |||||
Identification of ecodesign-related opportunities and benefits | |||||
5 | End-of-life strategies, packaging and operations | 5 practices | Monitor the product environmental performance during use and end-of-life [16,19,42] | Environmental performance during use and end-of-life | Information for end-of-life decisions |
Consumer behavior data | Recommendations to customers/stakeholders for use and end-of-life | ||||
Input data for product development decision-making | |||||
6 | Strategic management of ecodesign implementation | 9 practices | Identify internal and external drivers for the development of products with a better environmental performance [16,19,42] | Internal drivers for the development of products with better environmental performance | Alignment and consistency with internal drivers |
External drivers for the development of products with better environmental performance | Alignment and consistency with external drivers | ||||
7 | Portfolio management and environmental trends | 4 practices | Evaluate the environmental feasibility of new product development projects [16,19,42] | Environmental feasibility of new product development projects evaluated | Input data for product development decision-making |
8 | Product development management | 11 practices | Engage relevant people from functions across the company in the integration of environmental issues into product development [16,19,42] | Relevant people engaged in ecodesign across the company | Employee motivation, engagement and productivity |
Relevant people identified across the company | Employee awareness regarding environmental issues | ||||
9 | Value chain management | 3 practices | Establish cooperation programs and joint goals with suppliers and partners aiming to improve the environmental performance of products [16,19,42] | Cooperation programs and joint goals with suppliers and partners | Superior value chain environmentally-oriented integration |
Sharing of environmental information among suppliers/partners | |||||
10 | Regulatory compliance | 2 practices | Collect information about legal issues and standards related to the environmental performance of products [16,19,42] | Information about legal issues collected | Reaction and anticipation to regulatory changes and trends |
Information about standards collected | Potential for regulatory-driven innovation in products and services | ||||
11 | Program management and ecodesign benchmarking | 4 practices | Benchmark the environmental performance of competitor products | Benchmarks against competitor products | Identification of innovation opportunities in products and services based on benchmarks |
TBL Dimension | Category | Business Performance Outcome | Reference |
---|---|---|---|
Economic | Marketing | Brand value | [73] |
Economic | Profitability | Company profitability | [74] |
Economic | Revenue | Revenue growth | [75] |
Economic | Customer satisfaction | Customer loyalty rate | [76] |
Social | Corporate citizenship | Community support/involvement | [77] |
Social | Organizational development | Information dissemination (i.e., enhancement of the quality of decision-making/solution development) | [78] |
Social | Employee welfare | Human capital investment (wages, benefits, training and education) as percentage of profit | [79] |
Environmental | Emissions to environment | Total emission of glasshouse gasses | [80] |
Environmental | Resource efficiency | Material consumption | [79] |
Environmental | Energy efficiency | Energy management 1 | [81] |
Company | Industry | Roles Represented in the Workshop | Prioritized Business Performance Outcomes (Ranked) | Main Internal Stakeholders for the Ecodesign Business Case |
---|---|---|---|---|
A | Medical devices and services |
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B | Automotive and aerospace |
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C | Equipment for construction and related industries |
|
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Company | Main Strengths Regarding the Application of the Ecodesign-Specific Logic Model Framework | Main Weaknesses Regarding the Application of the Ecodesign-Specific Logic Model Framework |
---|---|---|
A |
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B |
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C |
|
|
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Rodrigues, V.P.; Pigosso, D.C.A.; Andersen, J.W.; McAloone, T.C. Evaluating the Potential Business Benefits of Ecodesign Implementation: A Logic Model Approach. Sustainability 2018, 10, 2011. https://doi.org/10.3390/su10062011
Rodrigues VP, Pigosso DCA, Andersen JW, McAloone TC. Evaluating the Potential Business Benefits of Ecodesign Implementation: A Logic Model Approach. Sustainability. 2018; 10(6):2011. https://doi.org/10.3390/su10062011
Chicago/Turabian StyleRodrigues, Vinícius P., Daniela C. A. Pigosso, Jakob W. Andersen, and Tim C. McAloone. 2018. "Evaluating the Potential Business Benefits of Ecodesign Implementation: A Logic Model Approach" Sustainability 10, no. 6: 2011. https://doi.org/10.3390/su10062011
APA StyleRodrigues, V. P., Pigosso, D. C. A., Andersen, J. W., & McAloone, T. C. (2018). Evaluating the Potential Business Benefits of Ecodesign Implementation: A Logic Model Approach. Sustainability, 10(6), 2011. https://doi.org/10.3390/su10062011