Conference Agenda
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30 SES 16 B: Modelling and Measuring in ESE
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30. Environmental and Sustainability Education Research (ESER)
Paper Levels of Sustainability Transitions, Competences and Learning: A Proposition for a Meta‑Model University of Jyväskylä, Finland Presenting Author:Sometimes it is difficult to find a common basis for identifying focal actions or competences in environmental and sustainability education and learning, particularly when broad sustainability transitions are the goal. Some people refer to installing solar panels, while others emphasise sustainable values, awareness, knowledge, and pro‑environmental behaviour. Some focus on structural sustainability efforts, whereas others question how any of this relates to the global sustainability crises, where the most urgent problems often seem to occur elsewhere, outside our immediate sphere of activity. This theoretical study combines results from two empirical research projects and literature on sustainability transitions, sustainability competence, levels of activity, and learning for sustainability. The aim is to develop a multi‑level model that answers the question: What kinds of competences are needed in sustainability transitions, and how do learning processes unfold across different levels of activity — technical‑material, individual, collective, and systemic? In this study, sustainability is defined according to the concept of planetary well-being: the continuity of life and the significance of all parts of the biosphere are placed at the centre. Competence is defined as “an adequate range of capacity or ability; sufficiency to deal with what is at hand”. Sustainability competence is understood simply as the ability to act for sustainability, and it can be possessed not only by humans but also by organisations, societies, and even by nature itself. Learning is viewed as change within individuals, organisations, and societies, and change is regarded as something that generates learning in all of these. Learning produces sustainability competences across different levels of action. The goal of the entire process is a sustainability transition and a sustainable future—one that we can see only vaguely on the horizon, and which becomes clearer only through exploration during the transition process. The model is grounded in Geels’ multi-level transition theory and Engeström’s Theory of Expansive Learning: the transition unfolds through phases across different, intertwined levels of activity. Understanding the essence of each level has been further developed through O’Brien and Sygna’s Three Spheres of Transformation framework, Kemmis and Grootenboer’s practice architectures, and the work of Willamo et al. related to the complexity of sustainability transitions. These show that, at different levels, the nature of activities varies, and although the levels are nested, one level cannot be fully understood through the properties of another. Sterling, building on Bateson’s work, has shown that learning for sustainability varies in depth across different levels. Coole and Frost, in introducing New Materialism, have provided inspiration for considering how our material environments can be actors in sustainability. Bianchi, synthesising research on sustainability competences, has helped to elaborate the role of knowledge, skills, and attitudes. Scott’s Institutional Theory has contributed to the understanding of the organisational level by highlighting regulative, normative, and cultural aspects. The works of West et al. concerning relational thinking and Willamo and Engeström concerning how organisations interact and develop in networks around urgent issues have an impact on the model. All these different theoretical insights have advanced thinking on the relationships between the material environment, human initiatives, communal structures, and complex systems in sustainability transitions. Bringing together theories from different origins and disciplines—even from different epistemologies—and allowing them to speak to one another is one way of interpreting the relational sustainability competence that this model associates with the systemic, global‑network level of sustainability transitions. Methodology, Methods, Research Instruments or Sources Used Empirical research has complemented the theoretical exploration and connects this model to sustainability practices and development in educational settings. Two research projects in which I have been involved have made major contributions to the development of the model. In an activity-theoretical study (2012–2021) of the school’s multi-level sustainability transformation, 31 international, national, and local steering documents were analysed from the perspective of sustainability education. Additionally, a case study in a Finnish comprehensive school mapped practical understandings of the issue through participatory action research, with the researcher spending 202 days onsite. In addition, 42 one-hour interviews were conducted, mainly with teachers, but also with administrative staff and representatives of NGOs. This research produced a proposal for levels of activity for promoting sustainability in schools. In the ECF4CLIM research project (2021–2025), the focus was on promoting sustainability competences. This EU Horizon 2020 project involved six countries and covered primary, secondary, and university levels. As part of the study, policy documents on sustainability education were analysed in the project countries. Data were also collected through a participatory action research in 13 demonstration sites, drawing on information from 159 designed (64 completed) interventions and their development processes. This multidisciplinary (engineering, administrative sciences, sociology, education, AT) project brought important insights into different perspectives on sustainability transitions and strengthened the conceptualisation of three spheres of sustainability competence: individual, collective, and technical-material. In addition to these large research projects, I have conducted several smaller-scale studies on the topic. Academic discussions, for example in conferences and events related to policy processes, have also strongly contributed to the model presented in this paper. In summary, this model of levels of sustainability transitions, competences, and learning has been developed through intensive examination of theoretical frameworks and extensive empirical research, integrating input from diverse sources into a coherent meta-model. Conclusions, Expected Outcomes or Findings Research has recognised a gap between individual choices and vast environmental crises. Fortunately, a bridge exists between them: individuals and communities capable of supporting sustainability efforts. The essence of the sustainability transition and the competences required, differ at each level: Nature and technical-material competences are tied to the laws of nature and to concrete matter, which humans can arrange but not control. At this level, sustainability crises become concrete in individual operations carried out for or against nature. Learning to do things better builds technical–material competences: the ability of material environments to act for sustainability. People and individual competences bring knowledge, skills, attitudes, emotions, and motives to the fore. Goals guide process‑oriented sustainability action that has a beginning and an end. Either people’s behaviour or their understanding can develop. Learning to do better things builds individual sustainability competences: the ability of individuals to act both alone and together for nature. Organisations and collective competences focus on structures, norms, and established practices that can either promote or hinder sustainability efforts. The aims of the organisation define the possibilities for a sustainability transition, which is continuous rather than process‑like. Learning involves a paradigm shift—seeing things differently from before. Collective competence describes the ability of an organisation to act for sustainability. Global networks and relational competences introduce a systemic perspective in which everything is connected. Sustainable action is shaped by competing ideas and aims, and clashes between activities can stimulate creativity and learning what is not yet there. Navigating this requires relational competence in a messy, complex, and multilayered reality. The sustainability transformation appears vague and continually shifting. These levels are deeply intertwined, nested within one another, and in constant interaction. Understanding on which level of competence the problem lies may help in identifying the right means to address it. References Bateson, G. (1972). Steps to an ecology of mind. Collected essays in anthropology, psychiatry, evolution and epistemology. San Franciso: Chandler. Bianchi, G. (2020). Sustainability competences. Joint Research Centre, European Commission. Available at https://publications.jrc.ec.europa.eu/repository/handle/JRC123624 Coole, D. H., & Frost, S. (2010). New materialisms: Ontology, agency, and politics. Duke University Press. ECF4CLIM (2026). ECF4CLIM project website. https://ecf4clim.eu/project-reports/ Engeström, Y. (2015). Learning by expanding: An activity-theoretical approach to developmental research (Second edition.). Cambridge University Press. https://doi.org/10.1017/CBO9781139814744 Geels, F. W. 2011. The multi-level perspective on sustainability transitions: Responses to seven criticisms. Environmental Innovation and Societal Transitions, 1(1), 24–40. http://dx.doi.org/10.1016/j.eist.2011.02.002 Kemmis, S., & Grootenboer, P. (2008). Situating praxis in practice: Practice architectures and the cultural, social and material conditions for practice. In P. S. P. Salo, & S. Kemmis (Eds.), Enabling Praxis: Challenges for education, pp. 37–64. Sense Publishers. Mykrä, N. (2021). Peruskoulu ekologista kestävyyttä edistämässä: Toiminnanteoreettinen tutkimus koulun monitasoisesta muutoshaasteesta [Basic school promoting ecological sustainability: Research about the multi-level challenge of school change in the activity theory framework]. Tampere University. O’Brien, K., & Sygna, L. (2013). Responding to climate change: The three spheres of transformation. In Proceedings of Transformation in a Changing Climate, pp. 16–23. University of Oslo. Scott, W. R. (2001). Institutions and organizations: Ideas, interests, and identities. SAGE. Sterling, S. (2003). Whole systems thinking as a basis for paradigm change in education. Explorations in the context of sustainability. CREE, University of Bath. West, S., Haider, L. J., Stålhammar, S., & Woroniecki, S. (2020). A relational turn for sustainability science? Relational thinking, leverage points and transformations. Ecosystems and people 16(1), 304-325. https://doi.org/10.1080/26395916.2020.1814417 Willamo, R. et al. (2018). Learning how to understand complexity and deal with sustainability challenges – a framework for a comprehensive approach and its application in university education. Ecological modelling 370: 1–13. 30. Environmental and Sustainability Education Research (ESER)
Paper Visual Models in Sustainability Education Practices: How do They Mediate Teaching and Student Reasoning? 1: Uppsala University, Sweden; 2: Stockholm University, Sweden Presenting Author:Agenda 2030 positions education as a central long-term strategy for enabling societal transformation towards sustainability. The research project presented here responds to the pedagogical challenge that many young people are simultaneously well informed about global sustainability challenges, while expressing pessimism and limited confidence in adults’ willingness and capacity to respond (Ojala & Bengtsson, 2019). The project is premised on the assumption that teaching that strengthens students’ conceptual knowledge and deeper understanding of sustainability issues can support their future-oriented engagement (Ojala, 2022). The study is part of a research project that examines how visual sustainability models can be used in upper secondary teaching to support students’ understanding of the complex interdependencies that characterize sustainability issues. Sustainability issues are shaped by complex relationships between ecological, social and economic dimensions (Raworth, 2017; Stiglitz, 2006), which students often find difficult to grasp (Lundegård & Hasslöf, 2022). Visual models, such as a venn diagram or the donut model, are commonly used in teaching to help students structure such complexity. However, although making sustainability more accessible, visual models risk oversimplying the relations involved, resulting in a possible loss of essential complexity (Connelly, 2007; Gallopin, et al. 2014). The overall aim is to examine how teaching based on visual models of sustainability can be designed to support students’ learning of complex relationships in sustainability issues. The research questions are: (I) Whether and how visual models of sustainability mediate students’ reasoning about different sustainability dimensions when such models are introduced in teaching about sustainability in upper-secondary school? (II) How do sustainability models function differently depending on subject-specific teaching traditions? Empirically, the study focuses on two Swedish upper secondary subjects where sustainable development is particularly prominent in the curriculum: social science (in Swedish, Samhällskunskap) and science studies (in Swedish, Naturkunskap). Both subjects have a strong civic mission and are described as interdisciplinary, although developed within historically different disciplinary traditions. This affects how sustainability is framed and which sustainability dimensions become foregrounded. For instance, social science addresses how ecological, economic, and social conditions shape and are shaped by individuals and societal structures; science studies approaches sustainability through themes such as health, energy and socio-scientific issues at the intersection of science and society. Theoretical framework The project is theoretically grounded in Cultural Historical Activity Theory (CHAT) (Engeström, 1987; Leontiev, 1986; Roth & Lee, 2007). Within CHAT, teaching practices are understood as historically evolved systems of goal-directed actions, shaped through culturally situated tools and norms. The project specifically investigates how sustainability issues are constituted differently across subjects when teachers and students engage in distinct teaching actions (e.g., tasks, descriptions, dialogue) using language and visual models, thereby creating different conditions for student reasoning and learning. Such teaching actions within specific teaching practices are identified through a practical adaptation of Radford’s theory of objectification (Radford, 2018), focusing on the underlying motives and aims of classroom activity. Analytical attention is directed towards how visual sustainability models mediate sustainability reasoning (Davydov, 1998; Elkonin, 1999). Importantly, the models are not treated as neutral representations. Rather, they are understood as tools developed in societal practices outside school to explain complex phenomena and shape public discourse about sustainability. Because these models incorporate multiple sustainability dimensions beyond what has historically structured school subjects, their classroom use may challenge established subject-specific aims and norms—a tension that can be analysed through CHAT and used to support critical reflection on how teaching can better equip students to address uncertain and conflict-laden sustainability issues. Methodology, Methods, Research Instruments or Sources Used Methodologically, the project is conducted as a design-based research (The Design-Based Research Collective, 2003), combining practice-oriented improvement with theory development through systematic analysis of local teaching practices (Plomp & Nieveen, 2013). The study investigates teaching practices in planned instructional interventions (“research lessons”) focused on education for sustainable development, using two visual models commonly used in textbooks, the Venn diagram (Venn, 1880) and the Doughnut model (Raworth, 2017). The models differ in how the ecological, social and economic dimensions are related to each other. Two parallel sub-studies were conducted at upper secondary level across two iterative cycles: one in social science and one in science studies. Six teachers, from three different upper secondary schools, participated. The research lessons were collaboratively designed, implemented, and analysed by the research team - consisting of four researchers and six in-service teachers - drawing on didactic theory on teaching sustainable development (e.g., Van Poeck et al., 2019). The lessons were embedded in ordinary classroom contexts as part of longer curricular units addressing sustainability issues, meaning that national syllabi and curriculum goals were integrated into the planning process. Based on a joint didactic analysis of cycle 1, the instructional designs for each subject were revised and subsequently implemented in cycle 2 with new student groups. Data from the classroom teaching were analysed using CHAT. This analytical approach supports evaluation of how instruction mediated by two different visual sustainability models functioned in practice. Specifically, the analysis aimed to identify the interaction between the visual models used in teaching and the ways in which relationships between different sustainability dimensions emerge in teaching and student reasoning - and thus the learning opportunities made available to students. The data collected consists of audio- and video recordings from whole-class and group discussions as well as collection of artifacts in the form of student texts and notes (both digital and physical). Particular attention was given to episodes where students worked in small groups with questions about sustainability using the visual model introduced in the lesson. These recordings were analysed with a focus on how students were supported by teaching actions of both teachers and other students, in developing more qualified ways of reasoning about interdependencies between sustainability dimensions. The analysed material consists of 16 research lessons with 105 small-group discussions, including in total 468 students. The research lessons were conducted in 8 different classes; 4 in social science and 4 in natural science. Conclusions, Expected Outcomes or Findings The preliminary findings of this study reveal that visual sustainability models support students' reasoning about sustainability, suggesting that the Venn diagram and the Donut model mediate students’ reasoning in different ways: the Venn diagram mainly supports classification and categorisation of sustainability aspects, while the Donut model provides a range of concepts for reasoning about interdependencies and limits. Challenges emerge in the use of both models. For example, the conceptual richness of the Donut model sometimes makes it difficult for students to discern what concepts are of key importance to a specific sustainability issue and the more general dimensions highlighted in the Venn diagram risks simplifying complex sustainability issues. The models also mediate the teachers’ talk about sustainability during instruction, providing different frames for elaborating on the sustainability issues at stake. Preliminary analyses indicate no major differences between social science and natural science studies. Overall, the study contributes new knowledge about what kinds of learning and teaching practices different sustainability models afford across subject contexts, addressing the challenge of supporting students in recognising sustainability as interconnected and complex. The findings are anticipated to be relevant beyond the participating schools, offering insights for improving sustainability education in upper secondary school across school subjects and educational settings. In addition, since sustainability education currently takes place across a range of subjects, the project’s comparative approach is likely to provide insights into how sustainability issues are handled and conceptualised differently within different disciplinary teaching traditions. This, in turn, may enable cross-subject reflection and challenge established practices, thereby supporting more interdisciplinary and complex approaches to sustainability education (Sund, Gericke & Bladh, 2020). The project outcomes are expected to support teaching that better meets contemporary youth engagement with climate and sustainability action, by strengthening students’ capacity to create coherence and to reason more conceptually about sustainability challenges. References Connelly, S. (2007). Mapping sustainable development as a contested concept. Local environment, 12(3), 259-278. Davydov, V.V. (1998). The Concept of Developmental Teaching. Journal of Russian & East European Psychology, 36(4), 11-36. The Design-Based Research Collective. (2003). Design based research: An emerging paradigm for educational inquiry. Educational Researcher, 32(1), 5–8. El’konin, D. B. (1971/1999). Toward the problem of stages in the mental development of children. http://www.marxists.org/archive/elkonin/works/1971/stages.htm. Engeström, Y. (1987). Learning by Expanding An Activity Theoretical Approach to Developmental Research. Orienta-Konsultit. Gallopín, G., Jiménez Herrero, L. M., & Rocuts, A. (2014). Conceptual frameworks and visual interpretations of sustainability. International Journal of Sustainable Development, 17(3), 298-326. Leontiev, A. (1977/1986). Verksamhet, medvetande personlighet. Progress/Fram. Lundegård, I. & Hasslöf, H. (2022). Antropocen och utbildning – direkta naturmöten och demokratiska processer. Pedagogisk forskning i Sverige, 27(3), 54-71. Ojala, M. (2022). Prefiguring sustainable futures? Young people’s strategies to deal with conflicts about climate-friendly food choices and implications for transformative learning, Environmental Education Research, 28(8), 1157-1174. Ojala, M., & Bengtsson, H. (2019). Young people’s coping strategies concerning climate change: Relations to perceived communication with parents and friends and proenvironmental behavior. Environment and Behavior, 51(8), 907-935. Plomp, T. & Nieveen, N. (Red). (2013). Educational design research. Part A: An introduction. SLO – Netherlands Institute for Curriculum Development. Radford, L. (2018). Teaching and learning (algebra or something else): Working together to make sense of similarities and differences between theories (and understanding oneself). Paper Presented at the AERA New York. Raworth, K. (2017). Doughnut economics: Seven ways to think like a 21st-century economist. Chelsea Green Publishing. Roth, W-M., & Lee, J. (2007). “Vygotsky’s Neglected Legacy”: Cultural-Historical Activity Theory. Review of Educational Research, 77(2), 186-232. Stiglitz, J. E. (2006). Making globalization work. W. W. Norton. Sund, P., Gericke, N., & Bladh, G. (2020). Educational Content in Cross-curricular ESE Teaching and A Model to Discern Teacher’s Teaching Traditions. Journal of Education for Sustainable Development, 14(1), 78–97. Van Poeck, K., Östman, L. & Öhman, J. (2019). Sustainable Development Teaching: Ethical and Political Challenges. Routledge. Venn J. M. A. (1880) I. On the diagrammatic and mechanical representation of propositions and reasonings, Philosophical Magazine Series 5, 10(59), 1-18. | ||