Using Big Data for Sustainability in Supply Chain Management
Abstract
:1. Introduction
2. Literature Review
2.1. Sustainable Supply Chain
2.2. SSCM Frameworks
- (1)
- (2)
- They are focused on solving specific aspects instead of adopting a holistic approach that allows them to boost the economic, environmental, and social performance of the supply chain [32].
- (3)
- While some frameworks focus almost exclusively on the selection of indicators, others value only qualitative aspects to determine whether an SC has a coherent orientation toward sustainability. Therefore, they do not take advantage of the possibilities of combining both methods [6].
- (4)
- They lack a methodology that specifies which tasks must be carried out, who should carry them out, which stakeholders should be involved, what technological system must be implemented to support the qualitative and quantitative analyses, and how to integrate the results of these analyses in decision making to improve the sustainability of the SC. The SC sustainability assessment should serve to optimize resources, improve processes, enhance product innovations, reduce costs, reinforce productivity, and promote SC values [33].
- (5)
- They do not describe how to use the possibilities of the new information and communications technologies such as Big Data Analytics (BDA) to generate information and relevant knowledge about the current and future sustainability performance of the SC from structured data and nonstructured data sources [34,35]
- (6)
- The lack of verified Sustainable Supply Chain Management (SSCM) frameworks, which raises a serious question on their applicability and has become a concern for the practitioners [36].
2.3. Big Data and Sustainable Supply Chains
3. SSCM-IRIS Framework
3.1. Methodology
3.2. Human Resources
3.3. Stakeholders
3.4. Maturity Model
3.5. Organizational
3.6. Technology
4. SSCM-IRIS Framework Validation
4.1. Expert Assessment
4.2. Case Study
- Vessel speed optimization
- Vessel consumption reduction
- Terminal capacity optimization
- Sustainable supply chain awareness global training
- -
- To obtain a good view of the project scope and consequences, as well as to improve the sustainability of the supply chain quickly and without serious problems
- -
- To perfectly control the project, because all the activities to be carried out during the whole project life cycle were clearly defined, and the rest of the dimensions of the framework gave suitable support to the execution of these activities
- -
- To achieve all the goals set out at the beginning of the project and to accomplishe the timespan initially established without significant deviations
- -
- To clarify and update the strategy for the environmental, social, and economic sustainability of the supply chain, considering the situation of each enterprise that belongs to the supply chain
- -
- To communicate the sustainable strategy throughout the supply chain members
- -
- To align enterprises, unit, and individual goals with the supply chain sustainability strategy
- -
- To link objectives to long-term targets and annual budgets
- -
- To conduct periodic sustainability performance reviews to measure the sustainability objectives achievement and to develop actions plans to improve the supply chain sustainability.
- -
- To generate new information using Big Data to measure the sustainability performance of the supply chain from structured and unstructured data sources, both internal to the supply chain and external.
- Ensuring data security to avoid that different external stakeholders can access sensitive data.
- Involving more stakeholders in the different stages of the validation.
- Improving accuracy/communication of sentiment analysis method.
5. Discussion
5.1. Theoretical Implications
- (1)
- The proposal of a methodology dimension, which integrates sustainability assessment with sustainability improvement projects. None of the existing frameworks include a methodology to guide during all the activities in the whole Supply Chain Sustainability Management project life cycle, which integrates the assessment of sustainability with the action plans to improve SC sustainability. As a result, big opportunities to make improvements in SC sustainability can be missed [33]. In contrast to existing frameworks, the SSCM-IRIS framework guides during the whole project life explaining all the phases, activities and tasks that should be done and how and by whom, from the SC sustainability strategy definition till the business processes reengineering to improve the SC sustainability.
- (2)
- The combination of qualitative methods for sustainability objectives and strategy planning definition with quantitative methods to assess if all the SC companies meet their goals in all sustainability dimensions and at different levels. As [6] state, the qualitative and quantitative approaches for sustainability assessment are not combined in existing frameworks; therefore, they do not benefit from the advantages of combining both types of assessment.
- (3)
- (4)
- The SSCM-IRIS framework adopts a holistic approach through a Sustainability Balanced Scorecard that allows the SC environmental, social, and economic sustainability performance to be analyzed and improved. This is an important lack of existing frameworks that are mainly focused on specific sustainability issues instead of adopting a holistic approach that would enable them to improve all the SC environmental, social, and economic sustainability performance [32].
- (5)
- The SSCM-IRIS framework improves the analysis of the impact of SC sustainability, as well as the SC future impact using Big Data analytics. Unlike existing frameworks that focus on measuring only the past economic, social, or environmental impact of the SC [34,35], the SSCM-IRIS framework provides the design, architecture and software necessary to take advantage of the possibilities that the new technologies, such as Big Data, offer to improve the diagnostic analysis and to carry out a predictive analysis of the future impact of the SC sustainability.
- (6)
- The framework was applied to a case study. This is an important advantage over other existing frameworks because there is a lack of verified Sustainable Supply Chain Management (SSCM) frameworks, which raises a serious question on their applicability and has become a concern for the practitioners [36].
5.2. Managerial Implications
6. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Conflicts of Interest
References
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Activities | Tasks | Related Dimensions |
---|---|---|
Feasibility Study | Analysis of the financial, organizational, operational, and technological project viability | Human Resources: FI and PMO Stakeholders: internal to the focal enterprise |
Project Plan development | Commitment of the managers of the SC and members of the SC Definition of timeframe and sequence of the project’s activities Definition of quality control mechanisms | Human Resources: MSC and PMO Stakeholders: internal to the focal enterprise and the SC |
Definition of project’s responsibilities | Creation of the project teams Evaluation of team’s knowledge about sustainability Selection of team leaders and assignment of their responsibilities Schedule of follow-up meetings and training program implementation | Human Resources: HRM, PMO, and SSCMT Stakeholders: internal to the focal enterprise and the SC |
Development of Project Communication Plan | Make the project known to all the SC internal stakeholders, stressing that the project will have a positive effect on the SC by making both the SC and the SC members more competitive and sustainable Explain how the SC companies are going to be affected | Human Resources: SSCMT, HRM, and PMO Stakeholders: internal to the focal enterprise and the SC |
Activities | Tasks | Related Dimensions |
---|---|---|
Qualitative evaluation of SC companies | Interviews with managers of the companies in the SC Interviews with heads of department Survey through online questionnaire for other employees | Human Resources: MSC, ESC, and SSCMT Stakeholders: internal to the focal enterprise and the SC Technology: Application web Maturity Model: questionnaires and interviews |
Definition of SC sustainability objectives | Senior managers of the companies in the SC at meetings with the SSCM team | Human Resources: MSC and SSCMT Stakeholders: internal to the focal enterprise and the SC |
Selection of external stakeholders | Selection of external stakeholders based on the objectives | Human Resources: MSC and SSCMT Stakeholders: internal to the focal enterprise and the SC |
Selection of the sustainability strategy of the SC | Senior managers of the companies at the SC meetings with the SSCM team and SC stakeholders | Human Resources: SSCMT Stakeholders: all |
Activities | Tasks | Related Dimensions |
---|---|---|
Sustainability Balanced Scorecard (SBSC) development | Definition of objectives, goals, and indicators for level 1 (economic, social, and environmental) and level 2 dimensions (internal stakeholders, external stakeholders, departments/business processes, and resources). Definition of objective cause-and-effect relationships and indicators of cause-and-effect relationships Strategic map design Assessment and validation with interviews and questionnaires for the top managers of the SC companies and external stakeholders | Human Resources: MSC and SSCMT Stakeholders: all Technology: Application web/Form Maturity Model: questionnaires and interviews, SBSC |
Allocation of weights and definition of the sustainability index to measure level of maturity | Selection of panel of experts Designation of the number of rounds Definition of interview structure in each round Definition of weights for each indicator Definition of the sustainability index | Human Resources: MSC and SSCMT Stakeholders: all Technology: Application web/form Maturity Model: Method Delphi, sustainability index |
Activities | Tasks | Related Dimensions |
---|---|---|
Design | Functional, technological and graphic design Identification of data sources, procedures to extract data and calculate each indicator, language, format of the data, periodicity, norms of conduct, standards of development, etc. Ontology development | Human Resources: PMO, ITD, and SSCMT Stakeholders: internal to the focal enterprise and the SC Technology: BD-IRIS Framework |
Select technology tools and suppliers | Hardware requirements Selection of BI (ETL, DWH, OLAP, etc.), Big Data and visualization tools Selection of suppliers for installation, training and/or consultancy | Human Resources: PMO, ITD, and FI Stakeholders: internal to the focal enterprise Technology: BD-IRIS Framework |
DWH-SSCM development | Software installation Design of the design architecture Implementation of the DWH | Human Resources: PMO and ITD Stakeholders: internal to the focal enterprise Technology: ETL/DWH Technology: BD-IRIS Framework |
Software development for measurement of indicators | Software installation Develop and/or parameterize the appropriate software for calculating the current value of the indicators, and its predictive analysis, using the BI and Big Data tools | Human Resources: PMO and ITD Stakeholders: internal to the focal enterprise Technology: Big Data Technology: BD-IRIS Framework |
Data visualization | Software installation Parameterization in the form of dashboards, reports, etc. Verification and validation (User Acceptance Test) | Human Resources: PMO, ITD, SSCMT, and MSC Stakeholders: internal to the focal enterprise Technology: BD-IRIS Framework |
Activities | Tasks | Related Dimensions |
---|---|---|
Quantitative analysis and maturity model | Get the value of each indicator Diagnostic analysis Predictive analysis Determine current and future level of maturity | Human Resources: SSCMT, MSC and FI Stakeholders: internal to the focal enterprise and the SC Technology: BD-IRIS Framework Maturity Model: SBSC Organizational: SCI-IRIS methodology |
Activities | Tasks | Related Dimensions |
---|---|---|
Improvement actions | Definition and prioritization of sustainability improvement projects Communication of the affected chain to the companies and to external stakeholders Training in SSCM for staff and heads of department Implementation of sustainability improvement projects Share resources and information of SSCM practices among the members of the SC Establish control mechanisms | Human Resources: SSCMT, MSC, FI and HRM Stakeholders: all Organizational: SCI-IRIS methodology |
Semistructured interview questions to the Board
|
Level | Description |
---|---|
Level 0: No sustainability | None of the SC companies meet the sustainability levels in any of its dimensions—financial, environmental or social. |
Level 1: Partially sustainable in specific areas | Some of the companies in the SC have a good sustainability performance in one or several of the dimensions of sustainability but not in all of them or in the same dimensions. |
Level 2: Sustainable in specific areas | All the SC companies have a good sustainability performance in one or several of its dimensions. |
Level 3: Partially sustainable | Some of the companies in the SC meet the sustainability goals in all its dimensions, but other companies either fail to meet the goals in all the dimensions or do not meet any of the goals at all. |
Level 4: Totally sustainable | All the SC companies meet the sustainability goals in all its dimensions. Vision, goals, corporate structure and employees are aligned to work to achieve a total sustainability—financial, environmental, and social. |
Perspective | Indicator | Units |
---|---|---|
Environmental | Carbon footprint decrease | metric tons of CO2e |
Fuel consumption reduction | Metric tons | |
Speed reduction | Knots | |
Economical | Increase in profit | USD million |
Cost reductions | USD million | |
% New contracts | % | |
Social | Customer satisfaction survey | 0–10 |
Employee satisfaction survey | 0–10 | |
Social media sentiment | Bad-Good |
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Chalmeta, R.; Barqueros-Muñoz, J.-E. Using Big Data for Sustainability in Supply Chain Management. Sustainability 2021, 13, 7004. https://doi.org/10.3390/su13137004
Chalmeta R, Barqueros-Muñoz J-E. Using Big Data for Sustainability in Supply Chain Management. Sustainability. 2021; 13(13):7004. https://doi.org/10.3390/su13137004
Chicago/Turabian StyleChalmeta, Ricardo, and José-Eduardo Barqueros-Muñoz. 2021. "Using Big Data for Sustainability in Supply Chain Management" Sustainability 13, no. 13: 7004. https://doi.org/10.3390/su13137004
APA StyleChalmeta, R., & Barqueros-Muñoz, J.-E. (2021). Using Big Data for Sustainability in Supply Chain Management. Sustainability, 13(13), 7004. https://doi.org/10.3390/su13137004