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Please note that all times are shown in the time zone of the conference. The current conference time is: 10th May 2025, 04:07:39 EEST

 
 
Session Overview
Session
30 SES 07 B (OFFSITE): (OFFSITE) The Personal and the Political in ESE Research
Time:
Wednesday, 28/Aug/2024:
15:45 - 17:15

Session Chair: Karen Jordan
Location: OFFSITE VENUE, details tbc


Paper Session

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Presentations
30. Environmental and Sustainability Education Research (ESER)
Paper

Commonality and Ambivalent Individualism in ESE Theory and Practice

Ingerid S. Straume

Western Norway University of Applied Sciences, Norway

Presenting Author: Straume, Ingerid S.

In the face of serious challenges such as the planetary and environmental crises, policymakers tend to identify schools and universities as key institutions. A typical response from institutions of higher education and schools has been to educate social or green “entrepreneurs” and “change agents” – individuals with “action competence” who can deliberate and hopefully solve complex problems related to sustainability. Although this approach seems suitable for certain topics and certain (academically inclined) groups of students, I argue that it cannot be a universal recipe for education in a rapidly changing world where all kinds of people need to live meaningful and arguably quite ordinary lives.

Similarly, current ambitions in Western educational theory and policy to “see” individual students and their needs is not always as liberating as one might expect. For while education is becoming more inclusive, more adapted to individual learning strategies, open to students’ active participation, personalised learning programmes etc., many students report a massive amount of stress related to schooling. Contemporary individualism is, in short, ambiguous, and its concept of freedom is abstract in the Hegelian sense (Honneth, 1996). On this background, framing questions related to the planetary crises in terms of individual actions, action competence, attitudes etc. could be a recipe for hopelessness, self-doubt and apathy.

Over the recent years a number of theorists have pointed out how meaningful connections to nature may ease the ailments of the overburdened subject (Fisher, 2013). Likewise, attention to and care for what we have in common, i.e., institutions and the social imaginaries they embody may provide meaning to social life. I am not referring here to common values, traditions, etc., but rather to practices and ways of being that primarily make sense as being-collective, including notions of society as a whole and institutions (Laval & Vergne, 2021). Attention to commonality, the paper argues, may be beneficial for individuals’ well-being and provide opportunities for political freedom. A trivial example is singing together as opposed to performing. Traditionally, not least in schools, singing together has foster community and identity, not as an instrument for something else (e.g., learning other skills), but enjoyable and valuable in and of itself.

In contemporary, non-sustainable societies collective arrangements and imaginaries arguably need to be elucidated theoretically and reorganized in practice. However, theorising commonality, institutions and social imaginaries may be difficult in contemporary educational theory. One example is how the individualist-psychological concept of learning has replaced terms such as study, knowledge, understanding, etc. Another example is theory that starkly opposes individuals and collectives, notably Gert Biesta’s opposition between socialisation (seen as rigid structures) and subjectification (breaking with or opposing those structures). ‘Subjectification’ as a non- or anti-social concept is unhelpful if we want to theorise different kinds of socialisation, including institutions and commonality.

Against individualist ontology, then, commonality does not mean that everyone should somehow be the same, i.e. elimination or disrespect for difference or individual freedom. Indeed, commonality can also be a form of instituted diversity, as when people are gathered around a table which at the same time unites and separates them, to use Arendt’s metaphor. What we have in common, as different individuals partaking in common practices, are institutions and the social meanings they embody. Elucidating these practices and institutions can open up more opportunities for common (political) action for young people. Indeed, commonality as discussed here is a potential resource for agency, reflexivity and freedom that is individual and collective at the same time (Author, 2023). This is a resource that will be much needed in the future (see, e.g., Orr, Stone & Barlow, 2005).


Methodology, Methods, Research Instruments or Sources Used
Theoretical work in the continental tradition of philosophy of education. The paper elucidates foundational questions in Environmental and Sustainability Education drawing mainly on critical theory and French sociology in the 'social imaginaries' tradition. Relevant examples for the discussion are drawn from Northern European environmental and sustainability education and more global trends.
Conclusions, Expected Outcomes or Findings
A conceptual framework for analysing ontological individualism versus notions of commonality in ESE scholarship.
References
Fisher, Andy (2013). Radical Ecopsychology, Second Edition: Psychology in the Service of Life. SUNY Press
Honneth, Axel (1996). The Struggle for Recognition: The Moral Grammar of Social Conflicts. MIT Press  
Laval, Christian and Vergne, Francis (2021). Éducation Démocratique. La Révolution Scolaire à Venir. La Découverte.
Orr, David, Stone, Michael & Barlow, Zenobia (2005). Ecological Literacy: Educating Our Children for a Sustainable World. Sierra Club Books.


30. Environmental and Sustainability Education Research (ESER)
Paper

Scarcity or Sustainability? The Role of Capitalism in the Climate Emergency

Rachel Farrell1, Brian O'Boyle2, Marelle Rice1

1University College Dublin, Ireland; 2University of Galway

Presenting Author: Farrell, Rachel; Rice, Marelle

In order to delve into effective ways of imparting climate action education with an economic perspective, this paper employs a dual lens. Theoretical underpinnings are rooted in a radical political economy approach, aligning climate change with profit pursuit within the capitalist system (Bellamy Foster 2000; Marx, 2011). Pedagogically, the UNESCO Education 2030 Framework for Action guides the exploration, aspiring that by 2030, learners globally will possess the knowledge and skills to champion sustainable development (UNESCO, 2020). While laudable, these aspirations, emphasizing individual actions, risk neglecting deeper systemic roots of climate change. A radical political economy perspective becomes crucial, shifting the discourse from personal responsibility to the profit-driven dynamics of capitalism, wherein growth and accumulation are imperative for survival (Marx, 2011).

The present emphasis on personal responsibility often obscures major corporations' culpability for the bulk of greenhouse gas emissions, a concern echoed by climate activists and the Climate Justice Movement (Belamy Foster, 2010; Angus, 2016). This viewpoint extends beyond individual actions, challenging the system itself. The younger generation, exemplified by movements like Fridays for Future and the iconic Greta Thunberg, acknowledges this need for systemic change. Thunberg's call for global leaders to take responsibility rather than placing the burden on individual behavior reflects a growing sentiment among students, revealing a shared understanding that personal responsibility is an important start but an insufficient endpoint in environmental stewardship (Thunberg, 2019; Thunberg, 2022). The collaborative spirit between educators and these young activists is crucial in shaping effective climate education.

However, a UNESCO report reveals a stark reality – insufficient global commitment to climate education. Almost half of the reviewed countries lack climate change in their national curriculum frameworks. Despite the acknowledgment of its importance by 95% of surveyed teachers, only 23% feel equipped to comprehensively explain climate action (UNESCO, 2022). The consequences of this educational gap are reflected in the increasing eco-anxiety among the youth, as noted in the report.

Moreover, the report questions the quality of current climate change education, with 70% of surveyed youth unable to explain or having only a basic understanding of climate change. These findings underscore the urgency of reevaluating and enhancing the pedagogical approaches to climate education in schools (UNESCO, 2022).

The significance of teaching methodologies is evident, especially in disciplines like business studies and economics, where concepts risk inadvertently normalizing behaviors contributing to climate change. This paper argues, using a critical interpretation of common areas in the second-level curriculum across OECD countries, that climate action education should transcend personal responsibility.

The three key areas outlined in the curriculum involve students observing, evaluating, discussing, and analyzing real-life events to draw valid deductions and conclusions. They must also demonstrate an understanding of the origins and impacts of social, economic, and environmental phenomena, including the influence of organizations on human behavior and its subsequent impact on the environment. Additionally, students should develop the awareness, knowledge, skills, values, and motivation necessary to live sustainably (adapted from NCCA, 2016; OECD 2018; OECD, 2022).

In conclusion, this paper advocates for a comprehensive approach to climate action education, intertwining radical political economy perspectives with pedagogical frameworks like the UNESCO Education 2030 Framework for Action. By addressing the root causes of climate change within the capitalist system and enhancing the quality and focus of climate education in schools, we can foster a generation equipped to tackle the global challenge of climate change with both understanding and action.


Methodology, Methods, Research Instruments or Sources Used
This paper unfolds in three distinct sections, each addressing critical aspects of teaching climate action through an economic lens. In the initial section, the focus is on empowering students to analyze empirical evidence and draw conclusions. Specifically, the paper illuminates the empirical connections between economic growth and carbon emissions, leading to the assertion that a capitalist economy centered on perpetual growth is incompatible with an environmental stewardship model (Angus, 2016). The key takeaway is that sustainability requires a departure from the prevailing growth-centric economic paradigm.

Transitioning to the second section, the paper delves into the potential repercussions of economic concepts on environmental understanding. Grounding the discussion in the 18th-century economic and social context, the paper underscores that economics evolved as a theoretical reflection of emerging capitalist societies (O’Boyle and McDonagh, 2017). Economic concepts served the dual purpose of explaining and legitimizing capitalist relations, emphasizing profit pursuit and economic expansion (O’Boyle, 2017; O’Boyle and McDonagh, 2011). Understanding the historical context becomes crucial in recognizing that constructs like scarcity and choice were conceived during a period focused on generating economic resources and securing property rights for profit-making. In the contemporary context of climate crisis, clinging to the notion of endless growth becomes akin to exacerbating a problem rather than solving it.

The third section builds upon these insights while scrutinizing inherent tensions in contemporary economics education. With sustainability gaining prominence in discourse, the paper exposes contradictions arising from advocating for a society that does not live sustainably while prioritizing economic growth in public policy objectives. The paper contends that the conceptualization of scarcity in economics contributes to this contradiction, portraying humans as insatiable and endlessly acquisitive (Grampp, 1946; O’Boyle, 2017). This framing perpetuates the perception of inevitable economic growth when, in reality, meeting human needs can be achieved without chaotic and relentless global expansion. The argument posits a shift from limitless growth to prioritizing human needs, substantive equality, and sustainability. Consequently, living sustainably in the modern era necessitates not only changes in consumer behavior but, more fundamentally, political considerations for systemic transformation.

Conclusions, Expected Outcomes or Findings
In summary, this paper strives to instigate critical contemplation of climate change among educators and their students, using common learning objectives in second-level business studies and economics. The initial section posits a vital political conclusion: climate change is intricately tied to decision-making in the capitalist system. It challenges the prevailing notion of individual responsibility, highlighting that the root cause lies in an economic framework prioritizing profits above all else.

The second section delves into the historical context that molded key economic concepts. Early economists advocated for exponential growth, grounded in a world vastly different from our contemporary reality. This section underscores the need for reflexive thinking among educators, urging them to navigate cognitive biases when teaching historical economic concepts. The implication is clear – economic education should transcend historical legacies that may not align with the complexities of the present.

The final section unravels a tension in the modern curriculum, wherein exponential growth is rooted in natural desires while ethical, sustainable, and wise consumer choices are advocated. The key takeaway emphasizes a critical examination of concepts and their implications for human nature and sustainability. Unlike mainstream economics, this paper contends that the current climate emergency is not an innate human desire for perpetual growth but a consequence of capitalism. Urging the integration of this perspective into teaching and learning consensus, the conclusion underscores the imperative to rethink economic education, aligning it more closely with the realities of our time. It calls for a paradigm shift that recognizes capitalism's role in the climate emergency, marking a crucial step toward finding effective solutions. In essence, the conclusion advocates for a renewed perspective on key economic concepts, fostering an education that prepares students to navigate the complexities of the contemporary world.

References
Bangay, C. and Blum, N. (2010). Education Responses to Climate Change and Quality: Two Parts of the Same Agenda? International Journal of Educational Development 30(4): 335-450 [online] https://core.ac.uk/download/pdf/79545343.pdf [accessed 30 May 2021].

Bellamy Foster (2000). Marx’s Ecology: Materialism and Nature. New York. Monthly Review Press.

Bellamy Foster (2010). The Ecological Rift. Capitalism’s War on the Earth. New York. Monthly Review Press.

Farrell, R. and Sugrue, C. (2021). Sustainable Teaching in an Uncertain World: Pedagogical Continuities, Un-Precedented Challenges.  IntechOpen, doi: 10.5772/intechopen.96078.  

Geras N. (1985). Marx and Human Nature: Refutation of a Legend. London, Verso Books.
Grampp, W.D. (1946). ‘Adam Smith and the Economic Man’. Journal of Political Economy, Vol 56, no 4, pp, 315-336.

Hayek F. (2011). The Constitution of Liberty. Chicago. The University of Chicago Press.

Klein N. (2015). This Changes Everything: Capitalism Versus the Climate. London Penguin Books.

Kuhn. T.  (2012). The Structure of Scientific Revolutions. Chicago. Chicago University Press.

Locke, J. (1988). Two Treatises on Government. Cambridge. Cambridge University Press.

Malm. A. (2016). Fossil Capital: The Rise of Steam Power and the Roots of Global Warming. London Verso Books.

Marx, K. (2011). Capital Volume One. London Penguin Classics.  

NCCA (2016). Junior Cycle Business Studies Specification [online] https://www.curriculumonline.ie/Junior-cycle/Junior-Cycle-Subjects/Business-Studies/Statements-of-Learning/ [accessed 30 May 2021].

O’Boyle B. 2017. From Newton to Hobbes – The Metaphysical Foundations of Mainstream Economics. Cambridge Journal of Economics, Volume 41, Issue 6, pp. 1587–1605.

O’Boyle, B. and McDonough, T. 2011. ‘Critical Realism, Marxism and the Critique of Neoclassical Economics’ Capital and Class Volume 35, No 1. pp. 3-22.

O’Boyle and McDonough, T. 2017. Bourgeois Ideology and Mathematical Economics: A Reply to Tony Lawson. Economic Thought 6.1: pp.16-34.

OECD. (2018). Education 2030: The future of education and skills. Paris: OECD Publishing.

Quine, W.VO. (1980). From a Logical Point of View. Boston. Harvard University Press.

Strange, T. and A. Bayley (2008), Sustainable Development: Linking Economy, Society, Environment, OECD Insights, OECD Publishing, Paris, https://doi.org/10.1787/9789264055742-en.

Smith A. (2011). The Wealth of Nations (Books I-III). London. Penguin Classics.

Thunberg, G. (2019). No One Is Too Small to make a Difference. Penguin Books.

Thunberg, G. (2022). The Climate Book. Allen Lane.

UNESCO. (2020). Education for Sustainable Development. A roadmap. Paris: UNESCO. [online] https://unesdoc.unesco.org/ark:/48223/pf0000374802.locale=en [accessed 31December 2022]

UNESCO. (2022). Youth Demands for Quality Climate Change Education. Paris: UNESCO. [online]  https://unesdoc.unesco.org/ark:/48223/pf0000383615 [accessed 02 January 2022]

Vermerien M. (2021). Crisis and Inequality: The Political Economy of Advanced Capitalism. Oxford Polity Press.


30. Environmental and Sustainability Education Research (ESER)
Paper

The Argumentation Discourse Quality During The Students Classroom Energy Decision-Making In The Context Of The Climate Global Warming

Elie Rached

Université Paris-Saclay, Etudes sur les sciences et les techniques, 91400, Orsay, France.

Presenting Author: Rached, Elie

Educating future citizens and equipping them to make informed decisions regarding contemporary social issues interconnected to science and technology has been a major focus in science education policies in Europe for over a decade (Hazelkorn, 2015). Moreover, the 2030 Agenda for Sustainable Development of the United Nations, adopted by United Nations Member States in 2015, ensures that all learners acquire the knowledge and skills needed to promote sustainable development through education. Hence, this includes an Education for sustainable development (ESD) that “gives learners of all ages the knowledge, skills, values and agency to address interconnected global challenges including climate change, loss of biodiversity, unsustainable use of resources, and inequality. It empowers learners of all ages to make informed decisions and take individual and collective action to change society and care for the planet.” (UNESCO, 2023).

In addition, engaging learners with Environmental Socioscientific Issues (ESSI) (e.g. Social issues with conceptual or technological ties to science), associated to sustainability, has become a major focus for recent research in science education from various perspectives (Morin et al., 2017; Zeidler et al., 2019). Reasoning on Environmental Socioscientific issues encompass dealing with ill-structured open-ended environmental complex problems, embedded in uncertainties.

Moreover, studies that are focusing on promoting the argumentation discourse in the science classroom, including on socioscientific issues, have emanated from the perspectives of argumentation as a way to learn science and about science, but also from an interest in the students’ citizen education in a democratic society, which requires the participation in debates (Jiménez-Aleixandre & Erduran, 2007).

However, encouraging classroom students’ dialogic argumentation practices and assessing it, during a decision-making in authentic SSI and in different cultural contexts, as students consider multiple perspectives from different sources, are still current topics in socioscientific issues science education research (Zeidler et al., 2019).

This research contributes to what is mentioned previously. It encourages both classroom students’ decision-making regarding an ESSI, which takes into account values, global and local dimensions and social, scientific and technical content-knowledge related to the issue, and argumentation practices. In particular, we focus in this paper on examining classroom high school students’ argumentation quality when making a decision regarding an environmental socioscientific authentic issue while considering multiple perspectives from different sources (Rached, 2018).

Our research question is: What is the students’ dialogic argumentation quality during a classroom decision-making on a socioscientific issue?

In this paper, we examine the product of the students’ dialogic argumentation, i.e. arguments. We take into account in our analyses the arguments core and to some extent, the argumentation dialogic features in which two or more speakers discourse with one another (Nielsen, 2013).

We designed and conducted the research in two specific contexts in France and Lebanon, with an experimental design-based research approach committed to the SSI and argumentation currents (Rached, 2015). In this paper, we present the data analyses from the French sample.


Methodology, Methods, Research Instruments or Sources Used
Thirty French second year high school students in the scientific-section, were engaged in a weeklong ESSI teaching unit during their school year. The ESSI involves a local energy decision, choosing a heating system for a habitat, in the context of a climate global warming.
The teaching unit includes five sessions. Each session lasts 25-55 min. After teaching basic scientific content-knowledge related to the issue (session 1), we presented to the students in small-group discussions one of three abstracts from scientific papers debating Global warming issue, to read and synthesise in written form (session 2) and then to present it orally to the whole classroom (session 3). Later, we presented to the students in small-groups, a document resuming technical, scientific, environmental, economical, health, etc. characteristics of five heating systems powered by different energy sources (electricity, wood, fuel, gas and solar), from which they had to choose one, while justifying with reasons (session 4). After, the students present and defend their (written) respective choices to the whole classroom (session 5).
We recorded all the sessions and working groups. In addition, the students answered the same ESSI questionnaire presented to them before and after the teaching unit (Rached, 2018).
In this paper, we present the analysis of the students’ small-group discussions of one working group during session 5.
Students’ dialogic argumentation was analysed using the Toulmin’s Argumentation Pattern (TAP), developed by (Osborne et al., 2004) (Table 1). We traced the quantity and quality of argumentation in their discourse. TAP illustrates the nature of an argument in terms of claims, data, warrants, backings, qualifiers and rebuttals. Osborne et al. reorganise either data, warrants or backings in one category called grounds. Moreover, Osborne et al. take into account the oppositions between students in their discourse and the use of rebuttals.

Table 1: Analytical Framework Used for Assessing the Quality of Argumentation (Osborne et al. 2004)
Level 1: Consists of arguments that are a simple claim versus a counter-claim or a claim versus a claim.
Level 2: Has arguments consisting of a claim versus a claim with the ground(s) but do not contain any rebuttals.
Level 3: Has arguments with a series of claims or counter-claims with ground(s) with the occasional weak rebuttal.
Level 4: Shows arguments with a claim with a clearly identifiable rebuttal. Such an argument may have several claims and counter-claims.
Level 5: Displays an extended argument with more than one rebuttal.

Conclusions, Expected Outcomes or Findings
We present in Table 2 our first findings. The students reach the high-level argumentation (Levels 4 and 5) by using rebuttals at many occasions (8) and some weak rebuttals and oppositions (6). These results suggest that offering students with basic scientific knowledge and the opportunity to argumentation practices on the issue, while engaging them with high-quality arguments, may have certain impact on the argumentation quality use.
However, our findings are limited to one-group analyses. We need to analyse other small-groups discussions to check for eventual similar outcomes. It is also important to compare our sample results with the Lebanese sample for a broader cultural contextual view of these findings.
The high-level arguments frequency in our findings (44.3%) are comparable to (Osborne et al., 2004) findings (43%) on the SSI topics with their experimental group after a yearlong work with junior high-school students. However, our students are at the end of their second year of high-school, which explains some of the students’ performances in our research.
The use of Osborne et al. model to analyse dialogical collective arguments reduces many gaps found in the initial TAP (Nielsen, 2013). However, it would be interesting to make some adjustments in order to grasp the students’ cross references made along the discussions and the distinction between arguments with weak rebuttals and those without, in the Level 3. In addition, we suggest introducing a sub-level of argumentation for the use of qualifications, which also could be an indicator of argumentation quality, especially when comparing argumentation discourse to written ones.

Table 2: numbers of each level of argumentation achieved by students
Level of argumentation / Frequency (percentage)
Level 1:                            1 (5.5%)
Level 2:                            3 (16.6%)
Level 3:                            6 (33.3%)
Level 4:                            5 (27.7%)
Level 5:                            3 (16.6%)
Total:                           18
Non arguments:         43 = 23 + 20

References
Hazelkorn, E. (2015). Science education for responsible citizenship : Report to the European Commission of the expert group on science education. Publications Office of the European Union. https://data.europa.eu/doi/10.2777/12626
Jiménez-Aleixandre, M. P., & Erduran, S. (2007). Argumentation in Science Education : An Overview. In S. Erduran & M. P. Jiménez-Aleixandre (Éds.), Argumentation in Science Education : Perspectives from Classroom-Based Research (p. 3‑27). Springer Netherlands. https://doi.org/10.1007/978-1-4020-6670-2_1
Morin, O., Simonneaux, L., & Tytler, R. (2017). Engaging with socially acute questions : Development and validation of an interactional reasoning framework. Journal of Research in Science Teaching, 54(7), 825‑851. https://doi.org/10.1002/tea.21386
Nielsen, J. A. (2013). Dialectical Features of Students’ Argumentation : A Critical Review of Argumentation Studies in Science Education. Research in Science Education, 43(1), 371‑393. https://doi.org/10.1007/s11165-011-9266-x
Osborne, J., Erduran, S., & Simon, S. (2004). Enhancing the quality of argumentation in school science. Journal of Research in Science Teaching, 41(10), 994‑1020. https://doi.org/10.1002/tea.20035
Rached, E. (2015). Socioscientific Argumentation : The Role of Scientific and Technical Knowledge? [Phd thesis, École normale supérieure de Cachan - ENS Cachan]. https://theses.hal.science/tel-01324425
Rached, E. (2018). « Les modes de raisonnement informel des élèves de lycée lors de prises de décision en classe sur une question socio-scientifique. Recherches en éducation, 32. https://doi.org/10.4000/ree.2258
UNESCO. (2023, novembre 17). What you need to know about education for sustainable development. https://www.unesco.org/en/education-sustainable-development/need-know (Retrieved 29/01/24)
Zeidler, D. L., Herman, B. C., & Sadler, T. D. (2019). New directions in socioscientific issues research. Disciplinary and Interdisciplinary Science Education Research, 1(1), 11. https://doi.org/10.1186/s43031-019-0008-7


30. Environmental and Sustainability Education Research (ESER)
Paper

Implementing Education for Sustainable Development in Upper Secondary School A Systematic Mapping Review

Rikke Magnussen1, Lone Dirckinck-Holmfeldt2, Lise Rasmussen3

1Aalborg University, Denmark; 2Aalborg University, Denmark; 3Aalborg University, Denmark

Presenting Author: Magnussen, Rikke; Rasmussen, Lise

The need to develop student sustainability competencies has long been addressed internationally with the UN 2030 Agenda for Sustainable Development [1]. Three overall focus points for the sustainable transition of education have been defined in the UNESCO’s new agenda ‘ESD for 2030’: transformative action, structural change, and technological futures [2]. The UNESCO definition of Education for Sustainable Development (ESD) combines two complementary approaches ESD 1 and 2 [3]. ESD 1 addresses sustainability issues in the short term. ESD 2 is a more open educational approach that addresses less defined long-term societal future scenarios where goals and needs are less clearly defined and can be changing. ESD 2 is defined as education where students build the capacity to think critically about knowledge, test ideas, and explore dilemmas and contradictions in sustainable living [3]. The defined competencies and pedagogical approaches include action competencies [4], systemic thinking (thinking across disciplines and sectors), social awareness [5], collaboration, critical thinking, and integrated problem solving [3]. Despite sustainability competencies being defined internationally, research stresses that ESD is often not well rooted in the existing school system [6, 7]. It is therefore stressed as crucial to take teachers’ perspective and their everyday teaching practice into consideration when aiming at improving sustainability education in schools [8].

The current paper is part of a larger national research project titled ‘GreenEdTech: Green Transition of Education and educational TECHnology’. Over a period of four years the project will construct educational models and a digital learning space with the goal of implementing ESD into STEAM subjects in upper secondary school education in Denmark. Addressing the described challenge of rooting ESD in school practice is therefore central in the project. The current paper is a systematic review with focus on mapping literature on ESD and Environmental and Sustainability Education (ESE) integration in upper secondary education from 2018-2022. The study seeks to answer the following research question: How has ESD and ESE been implemented in upper secondary school? Through search and selection strategies, described in the method section, 70 eligible papers was identified and categorised in five categories (numbers in parenthesis indicates number of studies identified in each category): 1. Integration of ESE/ESD in a single formal school subjects (19/70), 2. Cross-disciplinary integration of ESD/ESE cross formal school subjects (18/70), 3. Development of new formal ESD/ESE educations, schools or approaches (14/70), 4. New informal OR cross formal and informal settings ESD/ESE education (8/70), 5. Technology-based spaces for ESD education (11/70).

We found several dominant themes across the different categories. Most frequent was themes with focus on students’ competences, curriculum development, and new types of assessments of ESD/ESE competences. The perspectives on these themes were however dependent on the focus of the category e.g. if the study focused on implementation of ESD/ESE in single subjects or across subjects, or on development of new subjects and schools. As an example, category 1. which included studies with focus on integrating ESD and ESE into single formal school subjects, focus was on development of new didactic models, syllabuses, and curricula for integration of ESD/ESE in a single formal school subject such as chemistry and geography. This both included studies with analysis of curriculum to understand potentials for integration of elements of ESD/ESE [see 9], and redesign of subjects to experiment with approaches to changing content or curricula of traditional subjects. One example of this was design and craft education where potentials for focusing on sustainable materials and design was pointed out [10].


Methodology, Methods, Research Instruments or Sources Used
The systematic review process involved defining the scope, inclusion/exclusion criteria, identifying potential studies through keyword-based literature searches, screening abstracts and papers for inclusion criteria, and characterizing articles for mapping through keywords. The following keywords were chosen based on a screening of concepts in primary research articles in the field: “education for sustainable development” OR “environmental and sustainability education” AND school OR “K-12” OR “secondary education” NOT “teacher education” OR “teacher professional development” OR “teacher training”. The search words were chosen to ensure that studies contained a primary focus on education and specifically on education for sustainable development as defined by UNESCO (2008). These search words were applied across the databases: EBSCOhost, Scopus, Web of Science, ProQuest. Filters to the searches was applied for searches only to include the following record standards: peer-reviewed work, language limited to English, studies where the keywords were mentioned in abstracts, and records that were primary studies with document types such as journal articles, conference papers or book chapters. Searches were filtered for publication data from a period of five years from 2018 (January 1st) – 2022 (July 5th). The number of records cross databases before removal of duplicates was 815 and was reduced to 385 after removal of duplicates. The abstracts of the 385 records were screened for eligibility applying the following inclusion criteria:
1. Participants: Studies should involve pupils aged 13 – 16
2. Educational context: studies should focus on educational activities in formal and/or informal educational contexts in western countries
3. Content: Studies should contain analysis of ESD practice, design or empirical data of implementation of ESD/ESE in a learning context, and have primary focus on ESD/ESE education
4. Sustainability focus: Studies should have primary focus on climate sustainability e.g. excluding studies with primary focus on inequality or other SDGs in general.
5. Learning situation: studies include involve any subject in upper secondary school in different countries or cross subjects, new subjects developed with focus on ESD/ESE, new schools or informal learning contexts, or technology-based learning environments.
6. Record standard: Records should be peer reviewed full papers in English, contain keywords in abstract, be primary studies, and be conference or journal papers or book chapters.

Though a screening applying the above inclusion criteria, 70 studies were selected. An analysis process inspired by thematic analysis was applied to identify the categories described in the abstract [10].

Conclusions, Expected Outcomes or Findings
The aim of the current paper has been to answer the research question: How has ESD and ESE been implemented in upper secondary school? Five categories was identified from screening of 70 eligible papers: 1. Integration of ESE/ESD in a single formal school subjects, 2. Cross-disciplinary integration of ESD/ESE cross formal school subjects, 3. Development of new formal ESD/ESE educations, schools or approaches, 4. New informal OR cross formal and informal settings ESD/ESE education, 5. Technology-based spaces for ESD education. The majority of studies belonged to category 1 and 2, whereas category 4 which included studies of ESD/ESE in informal settings had fewest studies. The formal/informal contexts could thus be explored further. Three overall themes were identified across several of the five categories: 1. Development of new educational approaches or curricula, 2. Analysis or development of student competences in relation to ESD/ESE, and 3. Evaluating or developing new ESD/ESE assessment tools. The themes differed dependent on the perspectives of the category. Development of new educational approaches and studies of student ESD/ESE competences has both been researched across subjects and in single subjects, whereas development of new assessment tools often is studied in a cross-disciplinary context. The themes and categories defined in this paper can both be further defined in future studies, but also function as guidelines for designing new ESD/ESE learning environments.
References
[1] K. Shulla, W. L. Filho, J. H. Sommer, A. L. Salvia. & C. Borgemeister. Channels of collaboration for citizen science and the sustainable development goals. Journal of Cleaner Production. 2020. 10.
[2] E. A. Teo & E. Triantafyllou (Ed.) State-of-the-art analysis of the pedagogical underpinnings of open science, citizen science and open innovation activities. INOS Consortium. 2020.
[3] P. Vare and W. Scott. Learning for a change: Exploring the relationship between. Education and Sustainable Development. Journal of Education for Sustainable Development 1(2), 191–198. 2007.
[4] B. B. Jensen & K. Schnack. The action competence approach in environmental education, Environmental Education Research, 12(3-4), 471–486. 2006.
[5] J. A. Lysgaard & N. J. Jørgensen. Bæredygtighedens Pædagogik - Forskningsperspektiver og eksempler fra praksis. Frydenlund Academic. 2020.
[6] S. Breiting & P. Wickenberg. The progressive development of environmental education in Sweden and Denmark. Environmental Education Research. 16(1), 9–37. 2010.
[7] W. Scott & S. Gough. Sustainable Development and Learning: Framing The Issues; London, UK and New York, NY, USA.Routledge. 2003.
[8] H. Lotz-Sisitka. An opening dialogue with think pieces and feature articles on learning in a changing world. South. Afric. J.
[9] Bruckner, H. K., & Kowasch, M. (2019). Moralizing meat consumption: Bringing food and feeling into education for sustainable development. Policy Futures in Education, 17(7), pp 785-804.
[10] Hofverberg, H., & Westerlund, S. (2021). Among Facilitators, Instructors, Advisors and Educators - How Teachers Educate for Sustainability in Design and Craft Education. International Journal of Art & Design Education, 40(3), pp 543-557.
[11] Braun, V., & Clarke, V. (2006). Using thematic analysis in psychology. Qualitative Research in Psychology, 3(2), 77–101.

References of the reviewed records can be found in this google document:
https://docs.google.com/document/d/1Uc9VDI3GrDRKXcQ6iRsdMKOXfkqRjF2Xgg1rqTY5ZWA/edit


 
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