Sustainability Assessment: Exploring the Frontiers and Paradigms of Indicator Approaches
Abstract
:1. Introduction
2. Methodological Approach
3. Findings and Discussion of New Frontiers and Paradigms
3.1. Evaluation of the Indicator Challenges and Opportunities
3.2. Exploring New Frontiers and Paradigms
4. Final Remarks
Funding
Acknowledgments
Conflicts of Interest
Appendix
Selected Challenges and Opportunities | Summary of Rationale | ||
---|---|---|---|
Relevancy | Feasibility | Societal Impacts | |
#1. Richer selection of case studies: Call for a richer selection of case studies to help create practical and more useful guidance regarding sustainability assessment [60]. Allow the identification of patterns of what works best and the understanding and designing of context-specific approaches. | A significant amount of the existing SI work is related to case study-based approaches. | Despite their being resource-intensive, there are several SI systems being implemented, at national, regional, local and organisational levels, that can be used as case studies. | Proximity and visibility to stakeholders. |
#2. Specific cultural context: Indicators should be placed in a specific cultural context with a clear understanding of previous interventions; if indicators are used without understanding the processes and people they are relevant to, they may be easily misused (even if an indicator is good itself) [61]. SIs should not be “context-free.” | The need to understand the context that will tailor the SIs (e.g., the type of decision-making assessed, the institutional system, the context of professional practice and capacity, the territorial context and their specific natural and human‒cultural aspects). | Requires additional resources to adopt this approach. Local context data, including cultural/social, should be collected and integrated. | Increased sense of ownership and commitment from everyone involved. |
#3. Adequate level of standardization: Identify the adequate level of standardization for indicator sets versus context-specific sets [21]. Related to this aspect is the need to consider the vertical integration between SIs at different spatial scales (national, regional, local/organizational), and to examine the common sets of indicators between scales [62,63]. | Facilitate comparability and benchmarking between different cases and scales, and optimize the resources to conduct a sustainability assessment. | The operational process is not consensual, and the approaches are still under discussion. Further methodological development and practical evaluations are required. | Improve the communication with stakeholders, and the governance of different SIs. |
#4. Meta-evaluation: The evaluation of an evaluation and analysis of SI experiences [64,65]. Allows us to do a critical assessment of the strengths and weaknesses of the SIs, and draw conclusions about the overall utility, accuracy, validity, feasibility and propriety. | Several research initiatives that show how to accomplish this task and demonstrate the need and benefits of adopting meta-evaluation and reviewing approaches, with practical and theoretical implications. | The implementation of a formal meta-evaluation process could be technically complex, where the approaches are still not well established. Practical difficulties can arise in their implementation due to the complexity of prioritizing the implementation of the “key good-practice factors” and developing “meta-evaluation indicators” can also be a hard task [65]. | Too technical to be understood by most of the stakeholders, in particular the general public. |
#5. Alternatives to move beyond GDP: Development of alternative indicators, to move beyond GDP [66,67], to obtain clear and robust sustainability measures and “achieve measures of what we really want” [67]. | To provide a global SD shared vision, using new ways of measuring progress towards new goals. | Despite several attempts to propose GDP substitutes with the same popularity and impact, this is still ongoing work, and there is no consensus among the existing proposals. | Global communication implications and significant visibility to citizens. |
#6. Data limitations and provision problems: Overcome the data limitations and provision problems to better support decision-making processes, as well as reporting and communication initiatives, e.g., [68,69]. | Access to reliable data or justifiable proxies for the relevant themes is a paramount step, as well as providing open access to data. | In some cases, this could be difficult to overcome in a short term, in particular in territories/institutions that are less developed. It is a resource-intensive and complex task, with moving targets. | In an era of “post-truth” where the value of data and information is very volatile, data accuracy and reliability could be not perceived or valued by stakeholders. |
#7. Integrated and systemic and holistic perspective: Develop a more integrated and systemic/holistic perspective for SI, considering linkages, synergies, and antagonisms between SI, goals and targets [70]. SI integrated sets should include integrated or interlinkage indicators that cover different sustainability dimensions, i.e., one single indicator includes several dimensions, in particular environmental, economic, social, cultural and institutional/governance [51,65,71]. | Analyse, understand and report the integrated/systemic sustainability views and perspectives, and avoid a fragmented assessment, in particular for indicators that cover more than one thematic area and dimension (environmental, economic, social). | The implementation process is technically complex, where the approaches are still not well established. According to some authors (e.g., [50]), the interdisciplinary hypostasis of sustainability that traverses environmental, economic and societal issues may be an operational drawback instead of an advantage. This holistic approach, which encompasses more aspects than necessary, orients the use of indicators to vast collections of statistics that rarely influence policy-making. | Despite it being too technical to be perceived by stakeholders, the indirect effects of using integrated sustainability measures could be significant for communication and awareness purposes. |
#8. Optimum level of indicator aggregation: Raise the optimum level of indicator aggregation, as discussed in Singh [8]. Help present complex information in a synthetic way and at the same time avoid manipulation and “fake news,” with distorted indicators. | Several authors, e.g. [50], stress that instead of focusing on the construction of composite indicators that cover different areas of knowledge, we should try to summarise a complex situation in a single number (difficult to be attained in the absence of an appropriate indicator theoretical framework); “research should be focused on the identification of key indicators that can be linked together through verbal, statistical, or mathematical relationships and equations, contributing to a better understanding of the linkages among the different areas of knowledge that compose the aforementioned fields…” [50] (pp. 426). | Despite several attempts to propose the adequate level of indicator aggregation, this is still an ongoing work, and there is a lack of consensus among the existing approaches. | Improve communication standards, with significant visibility to stakeholders. Support the main indicator goals of synthesizing complex phenomena and transmit them in an easy and understandable way to stakeholders, and support decision-making processes. |
#9. Better mechanisms for indicator use in practice: Explore the mechanisms for indicator use in practice, e.g., [48,56,72], and understanding by different actors, creating opportunities for use and reporting indicator information. Approaches and methods need further development to understand the most effective ways to influence processes at different levels, including policy making and organisational strategies and operations, likewise citizens’ behaviours and attitudes towards sustainable goals. | As emphasized by Ronseström [73], good indicators are of little influence and importance if they are not used in any way. Information can feed back into the development and presentation of SIs. | Despite the existence of several works that explore technical issues of indicators and how they could support decision-making processes, few of them address the how, if, when, and who questions about indicators. The work of Morse [48] shows the emergence of this topic. | The most significant impact for stakeholders is when they use the tool that was developed for them. |
#10. Integration or non-traditional aspects of sustainability: SIs should cover general non-material values or non-traditional aspects of sustainability, such as ethics, culture and arts, aesthetics, effectiveness of governance, legislation and norms, spirituality, solidarity, compassion, mutual help [17,29,54,71], which represent less tangible dimensions of human society. | Until we have appropriate indicators to assess these intangible but fundamental aspects of SD, they will be invisible for assessment purposes [71]. | It may be very difficult to use direct indicators to evaluate these non-tangible aspects. Qualitative survey approaches are most likely to support these indicators, and therefore difficult to operate in a continuous way. | Increased sense of ownership, commitment and communication from everyone involved. |
#11. Use of Information tools and systems: Use of information tools and systems that condense the huge flows of information to report SIs, e.g., [74]. SI systems should respond to the growing access to information provided by modern information technologies and ensure rapid assessment. | New technologies, including geographic information systems and the Internet, are enabling web-based platforms for information sharing and gathering [53,58,59], enabling the desired stakeholders’ input. | The implementation process could be technically complex, and the approaches are still not well established. These more demanding information and communication technologies still face pending challenges that need further research. Examples of such limitations comprise data quality, use and sharing policies and expertise. | Increased sense of ownership, commitment and improved communication with stakeholders and access/use to data and indicators. Information systems designed to use/report sustainability data and indicators provide tools that could have significant positive impacts at individual/community levels. |
#12. Find the best selection criteria: What indicator selection criteria should be used without compromising credibly and accuracy and at the same time avoiding redundancy and complexity. Indicator selection is usually made by experts and/or through participatory approaches, in combination with literature reviews of existing indicator sets, and often little is known about the robustness of the selection stage [43]. | It is fundamental to evaluate the indicator selection process, regarding their utility, accuracy, validity and feasibility, e.g. [41,75]. The selection stage will impact the ability of the indicator system to be institutionalised and therefore used and maintained [76]. | Despite various works discussing these aspects, the implementation process is technically complex, and the approaches are still not well established. | When stakeholders are effectively involved, it could increase the sense of ownership, commitment and improve the evaluation and communication stages. |
#13. Institutionalisation process and governance models: SI governance models should be improved and clarified. Also, SIs need to become institutionalised in certain governmental processes to provide stability and credibility [17]. | The management model and institutional cooperation is a fundamental component of Sis; identifying the institution(s) and their roles and the leadership structures is essential to an understanding of the feasibility and societal influence of the indicator system [65]. | Despite no significant additional resources being required to implement this component, an institutional/political commitment of the involved decision-makers is a fundamental step, and in many cases is difficult to achieve. | Low visibility and usually not being perceived as a very important aspect by the general public and practitioners – “somebody is certainly in charge” but few people really care who is and what they do. |
#14. Satellite remote sensing and other observing technologies: New approaches to indicators using satellite remote sensing and other observing technologies to evaluate sustainability goals, as explored by [77]. | SIs supported by satellite data could be an important solution to mitigate data limitations and provision, in particular for certain scales of analysis. | Despite various related works that explore this field, the use of remote sensing data for SIs is still relatively underexplored, e.g., [77]. | The value of data and information is very volatile, and data availability, accuracy and reliability could be not perceived or valued by stakeholders, probably even more so in the case of remote sensing data. |
#15. Intergenerational equity information transfer: Indicators that capture the effectiveness with which intergenerational equity information transfer is taking place and how are pushing social and cultural evolution. However, several questions arise: How do we know what future generations will value? In that respect, how can one define what is a “fair,” ethical and “sustainable” thing to do? [61]) | One of the SD dimensions should be “time” [52], when assessing progress towards sustainability goals, so consider time preservation or intergenerational equity. As noted by ([51]), the time dimension should be taken into account where long-term changes towards sustainability are evaluated, like global warming, ecological disruption and social equity issues | Despite the existence of several attempts to explore this topic, it is still an open and complex question, needing further theoretical and practical scientific work. | Low visibility and too technical to be perceived by stakeholders. |
#16. The lack of an endogenous indicator’s theory The inexistence of an endogenous indicator’s theory is an important barrier to the enhancement of indicator research into an autonomous scientific field and relegates indicators to the ecological, social or economic field [50] | An integrated SI theory could be a fundamental step to respond to several of the most important needs and related challenges, weakness and limitations, and reach the next stage of indicator evolution. | Despite some works that explore this topic, there is a significant lack of progress and consensus on how to approach this complexity. | Low visibility and too technical to be perceived by stakeholders. |
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Selected Challenges and Opportunities | Relevancy | Feasibility | Societal Impacts |
---|---|---|---|
#1. Richer selection of case studies | | | |
#2. Specific cultural context | | | |
#3. Adequate level of standardization | | | |
#4. Meta-evaluation | | | |
#5. Alternatives to move beyond GDP | | | |
#6. Data limitations and provision problems | | | |
#7. Integrated and systemic and holistic perspective | | | |
#8. Optimum level of indicator aggregation | | | |
#9. Better mechanisms for indicator use in practice | | | |
#10. Integration or non-traditional aspects of sustainability | | | |
#11. Use of information tools and systems | | | |
#12. Find the best selection criteria | | | |
#13. Institutionalisation process and governance models | | | |
#14. Satellite remote sensing and other observing technologies | | | |
#15. Intergenerational equity information transfer | | | |
#16. The lack of an endogenous indicator’s theory | | | |
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Ramos, T.B. Sustainability Assessment: Exploring the Frontiers and Paradigms of Indicator Approaches. Sustainability 2019, 11, 824. https://doi.org/10.3390/su11030824
Ramos TB. Sustainability Assessment: Exploring the Frontiers and Paradigms of Indicator Approaches. Sustainability. 2019; 11(3):824. https://doi.org/10.3390/su11030824
Chicago/Turabian StyleRamos, Tomás B. 2019. "Sustainability Assessment: Exploring the Frontiers and Paradigms of Indicator Approaches" Sustainability 11, no. 3: 824. https://doi.org/10.3390/su11030824
APA StyleRamos, T. B. (2019). Sustainability Assessment: Exploring the Frontiers and Paradigms of Indicator Approaches. Sustainability, 11(3), 824. https://doi.org/10.3390/su11030824