Conference Agenda
Overview and details of the sessions of this conference. Please select a date or location to show only sessions at that day or location. Please select a single session for detailed view (with abstracts and downloads if available).
Please note that all times are shown in the time zone of the conference. The current conference time is: 10th May 2025, 09:56:19 EEST
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Session Overview | |
Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Cap: 70 |
Date: Tuesday, 27/Aug/2024 | |
15:15 - 16:45 | 22 SES 02 A: Students' Assessment and Feedback Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Jani Ursin Paper Session |
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22. Research in Higher Education
Paper Re-considering Authentic Assessment Through the Lenses of Sustainability, Diversity and Partnership The University of Law, United Kingdom Presenting Author:This paper will re-examine the widely used term of ‘authentic assessment’ and argue that certain notions and assumptions about it might usefully be re-considered in view of shifting expectations and priorities in higher education. The paper links to the theme of the conference in suggesting that our conceptions of authentic assessment, and applications of it to pedagogic practice, need to shift to account for broader changes, most pointedly social, economic and environmental issues categorised under the heading of sustainability and ESD (education for sustainable development). The paper seeks to offer some new perspectives in response to the following questions:
Whilst authentic assessment is a valuable term in that it provides a tool for educating about assessment, it has also become one that is somewhat generalised. It is often used as an explanatory mechanism to promote better practice in assessment; similarly, it is often tied to employability agendas, with the assumption that assessment should focus on preparing learners for the world of work. But should authentic assessment be about more than these things? In this re-conceptualisation, I will opine that, during their assessment journeys and over the duration of their studies, students should be exposed to wider issues by way of their assessment experiences, through alternative, contemporary lenses. These lenses include: Authenticity as sustainability - Higher education needs to engage more deeply and urgently with sustainability. Students should graduate as ‘sustainable beings’, which means that environmental and social aspects of sustainability should be embedded in curricula, teaching and assessment. These points are supported in student-based research – see, for example work by ‘Students Organising for Sustainability’ (sos.org.uk). Authenticity as student-staff partnership and student experience - Students should have the be actively involved in their assessment process as a normal practice. We need to collaborate with students, to provide a more student-centred student experience in assessment. Authenticity as equality, diversity and inclusion - Assessment cannot be authentic if some learners are disadvantaged. Authentic assessment is that which is fair to all, inclusive of all, and takes steps to mitigate against unconscious bias. Whilst other factors also need to be addressed in our efforts to develop authenticity, such as the rise and influence of Artificial Intelligence (AI), the above three will be focused on here. Further, given the recognised ‘urgency of sustainability’ the paper will concentrate especially on the first of the above. The paper will draw on a range of contemporary literature, including that on assessment design (Sambell, 2013; Brown and Sambell, 2020), authentic assessment (and feedback) (Navé Wald and Harland, 2017; Carless et al, 2020; McArthur, 2023), education for sustainable development (UNESCO, 2017; Advance HE, 2021; Smith, 2023); equality, inclusivity and unconscious bias (Agarwal, Mercer-Mapstone and Bovill, 2020, Tai et al, 2023; Sway, 2020) and student-staff partnership (Cook-Sather, Bovill and Felten, 2014; Students Organising for Sustainability – SOS – www.sos-uk.org). Finally, examples will be given of how authentic assessment has been applied in specific contexts using the lenses advocated. Methodology, Methods, Research Instruments or Sources Used The key points and arguments to be presented are formed from a literature review, which draws on themes including assessment design, authentic assessment, education for sustainable development, equality, diversity and inclusion, and staff student partnership. It applies and discusses publications and policy documents including those identified in the previous section – although these are examples and additional literature will be utilised. Further, the work makes use of other secondary sources, these being informal conversations and notes from the author’s direct involvement in assessment policy and pedagogy at several institutions. Specific application will be made to several key sources and guideline documents on education for sustainable development, including a forthcoming text of which the author of this paper is contributing, entitled ‘Education for Sustainable Development in Universities: Nurturing Graduates for Our Shared Future’ (Routledge, 2024). Finally, a reflective element based on a theory of reflection by Moon (2005) has been used to guide the approach and analysis. Whilst this is a UK based work, it will, through its use of literature and in its discussion, consider European and international contributions and frameworks, and again, particularly by way of its focus on education for sustainable development (ESD). Conclusions, Expected Outcomes or Findings In sum, this paper, which reports on an ongoing work, argues that to ensure authentic assessment remains a term with currency in higher education, and to ensure that authentic assessment is itself practised authentically, we need to connect it to wider, contemporary issues and challenges – through different lenses at different times - such as sustainability, wellbeing, equality, diversity and inclusion, and collaboration and partnership. In essence, authentic assessment should no longer be seen a static term to be applied in the same way to every learning, teaching, and assessment context, but as a more fluid and flexible entity. By adopting such an approach, we are more likely to achieve our goal of sustaining authenticity in assessment in the long term, as a central part of the learning and teaching process. References Agarwell, P. (2020). Sway: Unravelling Unconscious Bias, Bloomsbury. Baughan, P. (2021). Reflecting on significant moments: how our own assessment journeys guide us in assessing and providing feedback to others. Invited paper, Teaching and Learning Event (online), Autonomous University of Barcelona, 4th June. Brown, S. and Sambell, K. (2020). The changing landscape of assessment: possible replacements for unseen, time constrained, face-to-face invigilated exams. Retrieved 10.8.23 from: https://www.seda.ac.uk/wp-content/uploads/2021/04/Paper-3-The-changing-landscape-of-assessment-some-possible-replacements-for-unseen-time-constrained-face-to-face-invigilated-exams-4.pdf Carless, D. (2020). Feedback in online learning environments, in Baughan, P, Carless, D, Moody, J, and Stoakes, G. Moving Assessment and Feedback On-Line: Key Principles for Inclusion, Pedagogy and Practice. Retrieved 1 June 2021 from: https://connect.advance-he.ac.uk/networks/events/33587 [member access only]. Cook-Sather, A., Bovill, C. and Felten. P. (2014). Engaging Students as Partners in Learning and Teaching: A Guide for Faculty. CA, Jossey-Bass. Dawson, P., D. Carless, and Lee, P. P. W. (2020). Authentic feedback: Supporting learners to engage in disciplinary feedback practices. Assessment and Evaluation in Higher Education. https://doi.org/10.1080/02602938.2020.1769022 JISC (2015) https://www.jisc.ac.uk/guides/transforming-assessment-and-feedback/inclusive-assessment McArthur, J. (2023). Rethinking authentic assessment: work, well-being, and society. Higher Education, 85(1), 85–101. https://doi.org/10.1007/s10734-022-00822-y Mercer-Mapstone, L., & Bovill, C. (2020). Equity and diversity in institutional approaches to student–staff partnership schemes in higher education. Studies in Higher Education, 45(12), 2541–2557. https://doi.org/10.1080/03075079.2019.1620721 McCune, V. and Hounsell, D. (2005) The development of students’ ways of thinking and practising in three final year biology courses, Higher Education, 49, 3, pp. 255-289. Navé Wald, N and Harland, T. (2017) A framework for authenticity in designing a research-based curriculum, Teaching in Higher Education, 22:7, 751-765, DOI: 10.1080/13562517.2017.1289509 Quality Assurance Agency (QAA) (2023) Resources for implementing Education for Sustainability, Gloucester, QAA. https://www.qaa.ac.uk/news-events/news/collection-of-resources-for-implementing-education-for-sustainability-now-available Quality Assurance Agency (QAA) and Advance HE (2021) Education for Sustainable Development Guidance, Gloucester, QAA. https://www.advance-he.ac.uk/teaching-and-learning/education-sustainable-development-higher-education Sambell, K. (2013). Assessment for Learning in Higher Education. London, Routledge. United Nations Educational, Scientific and Cultural Organization (UNESCO) (2017). Education for Sustainable Development Goals: Learning Objectives. Paris, France. https://unesdoc.unesco.org/ark:/48223/pf0000247444 Smith, J. (2023). Climate Change and Student Mental Health – Report. Student Minds / UPP. https://www.studentminds.org.uk/uploads/3/7/8/4/3784584/climate_change_and_student_mental_health.pdf Tai, J., Ajjawi, R., Bearman, M., Boud, D., Dawson, P., & Jorre de St Jorre, T. (2023). Assessment for inclusion: rethinking contemporary strategies in assessment design. Higher Education Research & Development, 42(2), 483–497. https://doi.org/10.1080/07294360.2022.2057451 22. Research in Higher Education
Paper Students’ Voices In Co-designing Internal Feedback Research: First Methodological Steps 1Universitat Oberta de Catalunya, Spain; 2Universitat de Barcelona, Spain Presenting Author:Recently, there has been considerable research on formative assessment, as evidenced by extensive scientific literature and systematic reviews. Particularly relevant are reviews exploring the evolving relationship between formative assessment (FA) and student self-regulated learning (SRL) (Winstone et al., 2017). However, the process of self-assessment, which involves internalizing standards to regulate learning effectively, remains somewhat opaque (Lui & Andrade, 2022). Thus, there is a pertinent need to investigate the factors influencing this process, the student processes involved in interpreting and applying feedback, and how they contribute to self-regulated learning. Feedback, understood here as the process through which students make sense of information to improve tasks and learning (Carles & Boud, 2018), requires both student and teacher’s feedback literacy. Our contribution is part of a new project on internal feedback processes of higher education students, which builds upon two main axes: (A) self-regulation and (B) self-assessment toward internal feedback (Nicol, 2020). Student self-regulation involves appropriating assessment criteria, seeking feedback, and engaging in personal reflection (Yan & Brown, 2017). Advanced self-regulation strategies enhance long-term learning prospects and transferability beyond academia. Yet, a lack of evaluative judgment and self-assessment experience may impede desired learning outcomes. Students’ production and seeking of internal feedback to bridge performance gaps are crucial for engagement and learning efficacy (To & Panadero, 2019). Understanding students’ cognitive and affective responses to feedback, as well as the mechanisms of feedback processing, is essential for effective feedback utilization (Lui & Andrade, 2022). Research often focuses on formal feedback experiences, neglecting informal feedback's potential for learning. Investigating how students transform external feedback into internalized feedback and their cognitive processes is imperative. This necessitates a shift towards holistic, transformative theoretical frameworks to comprehend feedback phenomena. In summary, while various factors contributing to more efficient and higher-quality feedback have been identified, such as active student engagement in the learning and assessment process, feedback literacy, anonymous assessment roles, qualitative formats over numerical ones, provision of examples for comparison, and the integration of technology (Carless, 2019; Henderson et al., 2018; Panadero & Alqassab, 2019), the processes underlying feedback mechanisms remain elusive (Lui & Andrade, 2022). Moreover, while existing research has explored students' perceptions, emotions, and behavioral responses to feedback, understanding students' internal processes as they receive and internal feedback is crucial. This entails investigating the role of various factors in students' decision-making and behavioral responses to feedback, as well as examining additional elements such as interpretations, significance, and evaluative judgment capacity (Yan y Brown, 2017; Winstone et al., 2017). Furthermore, there is a need to broaden the scope of feedback research beyond comments provided by evaluators to encompass comparisons with other sources, thus unlocking its full potential for learning. This necessitates an exploration of strategies through which students convert natural comparisons into formal, explicit ones, enabling them to articulate and reflect upon these comparisons independently (Nicol, 2020). Overall, advancing our understanding of how students transform external feedback into internalized feedback, along with its implications for self-regulated learning, could inform the design of effective pedagogical practices and foster improvements in students' academic performance and self-regulatory skills. In this context, the objective of this paper is investigating students' value attribution to different feedback processes and to share our exploration of formal and informal feedback processes utilized by students, identifying mechanisms of information assimilation from external to internal feedback.Student’s personal voices are of utmost importance here, so that our presentation will focus on the process of co-designing the environment and strategy of data collection during natural learning processes. Methodology, Methods, Research Instruments or Sources Used The project proposes an initial collaborative co-creation process with students and international experts to develop a technologically-supported environment for the longitudinal qualitative collection of reflections. These reflections aim to reveal the processes by which students internalize received information and eventually do the transition from external feedback to internalized feedback during natural teaching and learning processes over one academic year. From here, a mixed-method study will be conducted. Initially, a more quantitative approach will be adopted to identify, on one hand, the internal factors of processing and interpreting this feedback based on three variables: (a) previous self-regulation profiles, b) evaluative beliefs - particularly about feedback -, and (c) self-efficacy. For this purpose, specific questionnaires will first be administered for each of these constructs. On the other hand, other intervening variables will be controlled, such as field of knowledge, and academic year, type of task, feedback sources, feedback characteristics according to an ad hoc guideline. Secondly, a qualitative study is proposed to intensively monitor the evolution of students' ability to generate internal feedback throughout an academic year. This will allow: (a) identification of the sources of information that students find most relevant for each type of task, (b) understanding the value they attribute to deliberate practices and what other natural sources they employ, (c) comprehension, by reclaiming their voices, of the actions they orchestrate as a consequence of the received information, and (d) identification of the change intentions generated by this process. In this part of the research, a series of three in-depth interview protocols has been designed, based on literature, to gather the subjective experiences, strategically placed at three different moments of the task-resolution/learning processes: at the starting point after knowing task demands, before delivering the student’s end-product, and after receiving the teacher’s feedback. Information will be collected also using tools co-designed with students, drawing on examples from Think Aloud protocols, reflective journals, and other strategies involving metacognition. Conclusions, Expected Outcomes or Findings There is a pressing need to delve into the cognitive, metacognitive, affective, and social processes at stake when students receive and interpret feedback. This understanding could lead to the development of tailored support structures, guidelines for teachers, and directives for students to enhance their evaluative competence, particularly in refining their evaluative judgment. At this moment of the project we are carrying out the co-design process with 20 students of a variety of disciplinary areas. Qualitative data are being gathered with respect to their preferences and suggestions for establishing a technological environment and procedure of close accompaniment during a whole semester in natural teaching and learning settings. The resulting design, in turn, will be implemented in the second phase of the study with new participating students. References Broadbent, J., Sharman, S., Panadero, E., & Fuller-Tyszkiewicz, M. (2021). How does self-regulated learning influence formative assessment and summative grade? Comparing online and blended learners. The Internet and Higher Education, 50(March), 100805. https://doi.org/10.1016/j.iheduc.2021.100805 Carless, D. (2019). Feedback loops and the longer-term: Towards feedback spirals. Assessment and Evaluation in Higher Education, 44(5), 705-714. https://doi.org/10.1080/02602938.2018.1531108 Henderson, M., Boud, D., Molloy, E., Dawson P., Phillips, M., Ryan, T., & Mahoney, P. (2018). Feedback for Learning: Closing the Assessment Loop – Final Report. Canberra: Australian Government Department of Education and Training Lui, A. M., & Andrade, H. L. (2022). The Next Black Box of Formative Assessment: A Model of the Internal Mechanisms of Feedback Processing. Frontiers in Education, 7, 751548. https://doi.org/10.3389/feduc.2022.751548 Nicol, D. (2020). The power of internal feedback: Exploiting natural comparison processes. Assessment and Evaluation in Higher Education, 46(5), 756-778. https://doi.org/10.1080/02602938.2020.1823314 Panadero, E., & Alqassab, M. (2019). An empirical review of anonymity effects in peer assessment, peer feedback, peer review, peer evaluation and peer grading. Assessment and Evaluation in Higher Education, 44(8), 1253-1278. https://doi.org/10.1080/02602938.2019.1600186 Panadero, E., Lipnevich, A., & Broadbent, J. (2019). Turning Self-Assessment into Self-Feedback. En M. Henderson, R. Ajjawi, D. Boud, & E. Molloy (Eds.), The Impact of Feedback in Higher Education (pp. 147-163). Springer International Publishing. https://doi.org/10.1007/978-3-030-25112-3_9 To, J., & Panadero, E. (2019). Peer assessment effects on the self-assessment process of first-year undergraduates. Assessment and Evaluation in Higher Education, 44(6), 920-932. https://doi.org/10.1080/02602938.2018.1548559 Winstone, N. E., Nash, R. A., Parker, M., & Rowntree, J. (2017). Supporting Learners’ Agentic Engagement With Feedback: A Systematic Review and a Taxonomy of Recipience Processes. En Educational Psychologist,52(1), 17-37. https://doi.org/10.1080/00461520.2016.1207538 Yan, Z., & Brown, G. T. L. (2017). A cyclical self-assessment process: Towards a model of how students engage in self-assessment. Assessment and Evaluation in Higher Education, 42(8), 1247-1262. https://doi.org/10.1080/02602938.2016.1260091 22. Research in Higher Education
Paper Development of a Scale to Assess Students’ Needs-based Study Crafting: Evidence from a Pilot Study Among Japanese University Students 1University of Helsinki, Finland; 2Beppu University, Japan Presenting Author:In the realm of academic pursuit, the quest for effective learning strategies is perpetual. Among the evolving methodologies, study crafting emerges as a novel paradigm, adapted from the concept of job crafting in occupational health psychology (Tims et al., 2010). Defined as the proactive adaptation of study by students to optimize learning experiences, study crafting represents a transformative departure from conventional strategies centered on reactive adjustments to external demands (Körner et al., 2021). By empowering learners to curate their educational journey, study crafting imbues a sense of ownership, fostering personalized and engaging learning trajectories. The significance of this proactive approach reverberates profoundly in academic circles, with implications spanning beyond mere scholastic achievements. Extant literature underscores its role in cultivating deeper comprehension, enhancing motivation, and fortifying resilience amidst academic challenges and adversities (Körner et al., 2023; Körner et al., 2021; Mülder et al., 2022). However, despite its potential, the conceptualization and empirical investigation of study crafting remain in nascent stages, warranting a comprehensive framework to elucidate its underpinnings. In this context, the Integrative Needs Model of Crafting (de Bloom et al., 2020) was recently proposed as a theoretical framework that integrates crafting research. Rooted in the understanding that psychological needs play a pivotal role in the crafting process, this model provides a comprehensive lens through which to explore why and how individuals engage in crafting across various life domains. While extensively applied in occupational health research, the integration of this model into educational discourse remains conspicuously absent. Notably, the prevailing study crafting model (Körner et al., 2021) adopts a demands-resources-based approach, departing from the needs-centric perspective espoused by the Integrative Needs Model of Crafting. Bridging this gap, the aim of this study is to extend the Integrative Needs Model of Crafting to the student context and develop an instrument to assess students’ needs-based study crafting, which we refer to students’ proactive and self-initiated changes in their study in order to achieve psychological needs satisfaction. Methodology, Methods, Research Instruments or Sources Used A new scale to assess six dimensions of needs-based study crafting (i.e., crafting for detachment from study, relaxation, autonomy, mastery, meaning, and affiliation) were created, referring to the Needs-Based Job Crafting Scale (Tušl et al., 2024). To rigorously evaluate the psychometric properties of this instrument, we conducted a pilot study among university students. Drawing participants from a local university in Japan, we conducted a cross-sectional survey. The survey booklet administered during class sessions included the Needs-Based Study Crafting Scale, alongside established measures assessing JD-R-based study crafting, proactive personality, DRAMMA needs satisfaction, study engagement, subjective vitality, and school life satisfaction. The Needs-Based Study Crafting Scale were scored on a 5-point Likert scale, ranging from 1 (never) to 5 (very often). JD-R-based study crafting was measured using an instrument used in Mülder et al. (2022). The items were scored on a 5-point Likert scale, ranging from 1 (not true at all) to 5 (totally true). Proactive personality was assessed using four items from the Proactive Personality Scale (Bateman & Crant, 1993). The items were rated on a 5-point Likert scale, ranging from 1 (not at all true) to 5 (very true). DRAMMA needs satisfaction was assessed using the Recovery Experience Questionnaire for detachment and relaxation (Sonnentag & Fritz, 2007), the Basic Psychological Need Satisfaction Scale for autonomy, mastery, and affiliation (Chen et al., 2015), and the Meaning in Life Questionnaire (Steger et al., 2006) for meaning. All items were scored on a 5-point scale, ranging from 1 (Not agree at all) to 5 (Fully agree). Study engagement was assessed using the 9-item version of the Work Engagement Scale for Students (Tayama et al., 2019). The items were rated on a 7-point Likert scale, ranging from 0 (never) to 6 (always). Subjective vitality was assessed using the Subjective Vitality Scale (Ryan & Frederick, 1997). The items were rated on a 5-point Likert scale, ranging from 1 (very rarely or never) to 5 (very often or all the time). Finally, school life satisfaction was measured using a single item adapted from Van den Broeck et al. (2010): “How satisfied have you been with your school life over the past month?”. This item was scored on a scale, ranging from 1 (very dissatisfied) to 10 (very satisfied). Conclusions, Expected Outcomes or Findings The data showed high internal consistency of the scale (α = .96 for the global scale; α = .95 for crafting for detachment from study, α = .97 for crafting for relaxation, α = .86 for crafting for autonomy, α = .91 for crafting for mastery, α = .91 for crafting for meaning, and α = .94 for crafting for affiliation). The results of CFA confirmed the proposed six-factor structure of the scale. Correlation analysis revealed that the scale is meaningfully associated with theoretically relevant constructs, including the JD-R-based study crafting, proactive personality, study engagement, vitality, and school life satisfaction. Furthermore, the scale showed incremental validity in explaining variance in DRAMMA needs fulfillment, study engagement, vitality, and school life satisfaction over and above needs-based off-job crafting. Collectively, the results presented herein suggest the scientific utility of the developed scale, thereby advocating for its continued exploration and utilization in practical contexts. Its completion will enable researchers to reasonably evaluate students’ needs-based study crafting and encourage new research efforts to gain novel insight into the construct. References de Bloom, J., Vaziri, H., Tay, L., & Kujanpää, M. (2020). An identity-based integrative needs model of crafting: Crafting within and across life domains. Journal of Applied Psychology, 105(12), 1423–1446. https://doi.org/10.1037/apl0000495 Körner, L. S., Mülder, L. M., Bruno, L., Janneck, M., Dettmers, J., & Rigotti, T. (2022). Fostering study crafting to increase engagement and reduce exhaustion among higher education students: A randomized controlled trial of the study coach online intervention. Applied Psychology: Health and Well-Being. Advance online publication. https://doi.org/10.1111/aphw.12410 Körner, L. S., Rigotti, T., & Rieder, K. (2021). Study crafting and self-undermining in higher education students: A weekly diary study on the antecedents. International Journal of Environmental Research and Public Health, 18(13), 7090. https://doi.org/10.3390/ijerph18137090 Mülder, L. M., Schimek, S., Werner, A. M., Reichel, J. L., Heller, S., Tibubos, A. N., Schäfer, M., Dietz, P., Letzel, S., Beutel, M. E., Stark, B., Simon, P., & Rigotti, T. (2022). Distinct patterns of university students study crafting and the relationships to exhaustion, well-being, and engagement. Frontiers in Psychology, 13:895930. https://doi.org/10.3389/fpsyg.2022.895930 Tims, M., & Bakker, A. B. (2010). Job crafting: Towards a new model of individual job redesign. SA Journal of Industrial Psychology, 36(2), a841. https://doi.org/10.4102/sajip.v36i2.841 Tušl, M., Bauer, G. F., Kujanpää, M., Toyama, H., Shimazu, A., & de Bloom, J. (in press). Needs-based job crafting: Validation of a new scale based on psychological needs. Journal of Occupational Health Psychology. |
17:15 - 18:45 | 22 SES 03 A: Students' Time Allocation and Student-Centrered Learning Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Helen Coker Paper Session |
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22. Research in Higher Education
Paper The Implementation of the Bologna Process: Identifying Student-Centred Learning in Master’s Supervision within a Norwegian and a Kurdish University University of Oslo, Norway Presenting Author:This paper reports on a case study investigating how student-centred learning, an underlying principle of the Bologna Process (EU, 2024, p. 14), can be identified in different master’s programmes at the University of Oslo (Norway) and Salahaddin University (Kurdish region of Iraq). Both universities formally adhere to the standards of the Bologna Process in their education systems. However, in practice, they differ in various aspects, including the length of time the implementation process has been adopted, funding and resources and university ranking—often with wide gaps between them (see, for example, Times Higher Education, 2024). The study focuses on student-centred learning within supervision-related activities, particularly in connection with the master’s thesis. This focus is examined at two levels within master’s programmes: first, the organisation (formalities and guidelines) and the educational design (academic and educational content), and second, the practice of master’s supervision. Based on these examinations, the paper investigates the following research question: How can student-centred learning in master’s supervision be identified in different higher education contexts? In the past two decades, the Bologna Process, initially promoting ‘universal education in Europe’ (Haukland, 2017, p. 261), has gained attention beyond the continent. Various universities within the Kurdish region of Iraq have recently adopted the Bologna Process, beginning in 2019 (APPRAIS, 2023). In the early 2000s, Norwegian universities, along with many universities in varying countries throughout Europe, began implementing the same uniform standards associated with the Bologna Process as a result of new higher education reform policies (EHEA, 2024). Currently, 49 countries, including non-EU nations such as Russia, Armenia and Azerbaijan, have all pledged ‘to pursue and implement the objectives of the Bologna Process in their own systems of higher education’ (EHEA, 2024). With numerous countries spanning thousands of kilometres now adopting the same educational standards, it is worthwhile to examine such global policies in universities at the local level. This is especially true because research related to the Bologna Process often tends to concentrate on a macro level, emphasising structures and political issues (Dysthe & Webler, 2010, p. 23). A guide provided to institutions planning to implement the Bologna Process within their higher education systems characterises student-centred learning as ‘innovative methods of teaching which aim to promote learning in communication with teachers and students and which takes students seriously as active participants in their own learning’ (EU, 2015, p. 76). To examine how student-centred learning can be identified in the two universities, Dysthe’s (2002) supervision models will be used as an analytical tool. Her models comprise three supervision types, each characterised by distinctive features: the teaching model (supervisor-in-focus), the partnership model (student-in-focus) and the apprenticeship model (project-in-focus). The model closest to the description of student-centred learning in this context is the partnership model, which is characterised by a symmetrical relationship between the supervisor and the student. In the partnership model, the master’s thesis is viewed as a joint project between the student and supervisor, involving a dialogical relation between the two parties, with the supervisor aiming to foster independent thinking. Dysthe (2002, p. 532) explained that the partnership model is based on a dialogical approach to learning (see Wittek, 2023). Within this framework, meaning is created through interactions between different individuals in a real-time context (Linell, 1998). When individuals in a setting share different thoughts and perspectives, their understanding is constructed and transformed (Dysthe et al., 2006, p. 302), facilitating learning opportunities. By using Dysthe’s supervision models, especially the partnership model, we can examine the type of supervision that is set up among different master’s programmes in relation to one of the Bologna Process’s underlying principles: student-centred learning. Methodology, Methods, Research Instruments or Sources Used The project employs a qualitative approach and utilises different methods to collect data, but at this stage, collection has only been conducted at the University of Oslo. However, the same methods will be applied at Salahaddin University, where we are currently in the process of collecting data. To begin, five master’s programmes from different faculties at the University of Oslo were selected. We chose international master’s programs to achieve some similar grounds between the subcases (the programmes all being in English, student groups with different educational experiences). To examine the organisation and the educational design in relation to master’s thesis supervision in these subcases, relevant documents on websites associated with the respective master’s programmes were collected and content analysis was conducted. The analytical tool used in this study consisted of specific themes and questions aimed at capturing information about master’s supervision in textual descriptions of the programmes and courses offered. Content analysis aids in gaining better insight into the organisation and educational design in relation to master’s supervision, revealing potential patterns or characteristics across faculties and countries (Tjora, 2017). It provides the opportunity to systematically review the websites of individual master’s programmes (Grønmo, 2016). Second, to gain deeper insight into the educational design and perspectives of both the programme coordinator and course leaders, focus group interviews were conducted. These interviews involved the programme coordinator and course leaders within selected master’s programmes from the five mentioned above. We selected two programmes that explicitly express elements that can be directly connected to student-centred learning. This could be linked to the master’s thesis and, in terms of participation, expecting the students’ full effort and engagement. With an interview guide prepared beforehand, a series of questions were asked about various topics, such as different course activities related to the seminar and group supervision within the programme, as well as the reasoning behind these activities, experiences from their own role as a supervisor and metathinking about their role. The focus group interviews were conducted to obtain more detailed information about the educational design in terms of the underlying ideas behind student learning and master’s thesis supervision and in conjunction with their own experiences from supervising master’s students. This research method was chosen to collectively input a broader range of views on the particular focus of master’s supervision from different perspectives (Katz-Buonincontro, 2022, p. 48–49). Conclusions, Expected Outcomes or Findings The preliminary findings revealed emerging tendencies. The written text describing master’s supervision on the five programmes’ webpages was often brief, with few explanations. However, based on the organised activities and descriptions of learning outcomes, conveying insights into the educational designs, signs of the ideas behind the partnership model could be discerned. Different course activities were organised in which students were expected to present sections of their thesis work, for example, in courses related to research methods. It was evident that there were clear expectations for peers to provide feedback, emphasising ‘expected student participation’. Regarding learning outcomes, course objectives requiring skills such as ‘critical thinking’ were often a recurring pattern, indicating expectations of certain skills for students to be actively engaged. The focus group interviews conducted at this stage revealed the presence of other supervision models besides the partnership model. Traces of the teaching model, also associated with a traditional approach to teaching, were evident in the data material. This was characterised by an asymmetrical relationship between the parties, where the goal was to transfer knowledge onto the student and the students were highly dependent on the supervisor (Dysthe, 2002). By reading through the transcripts and testimonies of the programme coordinators and course teachers, it was evident that many of the students were not considered ‘mature’ enough for supervision sessions resembling Dythe’s partnership model. The students’ knowledge background, coupled with the evolving dynamics between the parties, had an impact on the type of supervision that emerged during the supervision sessions. The different phases of the students’ master’s thesis work also had an impact on the type of supervision model that was observed. However, further data and analysis are needed to accurately determine how student-centred learning can be identified in the two universities. This will be included in the conference presentation. References APPRAIS (2023). Roadmap for the implementation of the Bologna Process in Kurdish universities. Read. 29 December 2023. https://www.appraisproject.eu/roadmap-for-the-implementation-of-the-bologna-process-in-kurdish-universities/ Dysthe, O. (2002). Professors as mediators of academic text cultures: An interview study with advisors and master’s degree students in three disciplines in a Norwegian university. Studies in Higher Education, 19(4), 493–544. Dysthe, O., Samara, A., & Westrheim, K. (2006). Multivoiced supervision of Master’s students: a case study of alternative supervision practices in higher education. Studies in Higher Education, 31(03), 299–318. Dysthe, O., & Webler, W. D. (2010). Pedagogical issues from Humboldt to Bologna: The case of Norway and Germany. Higher Education Policy, 23(2), 247–270. EHEA (2024). Full Members. Accessed 3 January 2024. https://ehea.info/page-full_members European Union (2015). ECTS Users’ Guide. Luxembourg: Publications Office of the European Union. https://doi.org/10.2766/87192 Grønmo, S. (2019). Samfunnsvitenskapelige metoder [Methods in social science] (2nd ed.). Fagbokforlaget. Haukland, L. (2017). The Bologna process: The democracy–bureaucracy dilemma. Journal of Further and Higher Education, 41(3), 261–272. Katz-Buonincontro, J. (2022). How to interview and conduct focus groups. American Psychological Association. Linell, P. (1998). Approaching dialogue: Talk, interaction and contexts in dialogical perspectives (Vol. 3). John Benjamins Publishing. Times Higher Education (2024). World University Rankings 2024. https://www.timeshighereducation.com/world-university-rankings/2024/world-ranking Tjora, A. (2017). Kvalitative forskningsmetoder i praksis [Qualitative research methods in practice] (3rd ed.). Oslo: Gyldendal akademisk. Wittek, L. (2023) Feedback in the context of Peer Group Mentoring: A Theoretical Perspective. In T. de Lange & L. Wittek (Eds.), Faculty Peer Group Mentoring in Higher Education. Springer. 22. Research in Higher Education
Paper Where Has Time Gone?A Latent Profile Analysis of First-Year College Students’ Time Allocation at a Top Research University in China Peking University, China, People's Republic of Presenting Author:Students make varying choices regarding how to allocate their time between a range of activities, which has important implications for their learning and development (Pace, 1981). Some studies find that undergraduate students are not sufficiently engaged in their studies and spend considerable amounts of time partying and other leisure activities (Armstrong & Hamilton, 2013; Arum & Roksa, 2011). In contrast, some other studies indicate that college students fall into a state of "poverty" during the time of independent exploration, spending "all the peak time" studying (Lingo & Chen, 2023), especially students in highly selective universities are facing overwhelming time demands (Haktanir et al., 2021). What is more, it is much harder for firs-year college students to manage time conflicts due to experiencing a critical turning point in knowledge and psychology (Armstrong & Hamilton, 2013). There is a difference between "natural time" and "social time" according to Adam (1994), the "natural time" is fixed and divisible units that can be measured, while quality, complexity, and mediating knowledge are preserved exclusively for the conceptualization of "social time". The "social time" is organized around values, goals, morals, and ethics, whilst simultaneously being influenced by group tradition, habits, and legitimized meanings, which can explain cross-cultural and historical differences in the allocation of time. At the same time, individuals also allocate their time based on their preferences, rather than allocating their time to comply with the requirements of "social time" (Hartmut, 2010). The concept of time provides basic theoretical clues for us to describe and understand the possible differences in time allocation among students (Fosnacht, McCormick, & Lerma, 2018; Toutkoushian & Smart, 2001). Compared with students in primary and secondary schools, the time discipline of college is weakened and has the characteristics of flexibility, although college students' time allocation is still subject to compulsory discipline. It is worth noting that flexibility is both an opportunity and a challenge for students. For instance, previous studies suggest that certain groups of students, such as low-income and disadvantaged students from underdeveloped areas, may face more constraints in discretionary time (Jaeger, 2009). Moreover, students with different level of academic performance may differ in their understandings of activities as well as differ in how they make plans and arrange priorities (Cambridge-Williams et al., 2013). In short, previous studies imply that students’ time allocation might be influenced by various factors, such as individual characteristics, family background, previous experiences in high school, and peers’ behaviors in college. Although previous studies offer valuable insights into the influence factors of time allocation(Crispin & Kofoed, 2019), it remains unclear the characteristics of students' time allocation. Additionally, previous studies simplify comparisons between the duration students spending on different activities in a cluster or discriminant analysis(Innis & Shaw, 1997; Pike & Kuh, 2005), overlooking the push and pull of various activities that force students to make trade-off on time allocation, especially for first-year students from elite or research universities. This paper attempts to investigate the characteristics of first-year college students’ time allocation and divide students into different types according to their time allocation. Furthermore, this paper will deeply investigate the characteristics of different types of students and analyze what factors affect students’ time allocation. Methodology, Methods, Research Instruments or Sources Used To answer the above research questions, we conducted two rounds of surveys among first-year undergraduates at a top research university in China. The baseline survey was carried out as soon as these students were enrolled in the university and the information were collected about their family background, previous high school experience and self-evaluation of ability development. The follow-up survey was conducted when these students finished their first-year study, it collected information about their time allocation, ability development and peers’ behaviors. A total of 1021 students participated in the two rounds of surveys. We began by analyzing students’ self-reported time allocation in a typical week and calculating the percentage of time spending in each activity such as class preparation, socializing and exercising, taking part in co-curricular activities and community service, working for pay. Then we classified students into different types according to the characteristics of their time allocation by using the latent profile analysis (LPA). The advantage of LPA is a probabilistic framework to describe the latent distribution rather than simply analyzing the difference between individuals (Crispin & Kofoed, 2019; Vermunt & Magidson, 2003). We categorized students into mutually exclusive and exhaustive subgroups based on their time-use behavior (Lanza & Cooper, 2016) and determined how well the model fits by taking fitting indexes such as the Akaike information criterion (AIC), Bayesian information criterion (BIC), adjusted Bayesian information criterion (aBIC), and entropy values into consideration (Lubke & Muthen, 2007). Next, we performed the Lo-Mendell-Rubin (LMR) test and the parametric bootstrapped likelihood ratio test (BLRT) to compare the candidate models. Furthermore, we developed a multinomial logistic regression model to examine what factors were related to different types of students with different characteristics of time allocation. Specifically, we added into the regression equation students’ demographic characteristics (such as gender, whether the child has any brothers or sisters), family background (such as family income, father’s education level and occupation type, hometown province), and previous experience (such as college entrance examination scores, types of high school, the graduation year of high school, and college majors) Conclusions, Expected Outcomes or Findings On average, students spent about 57.53% of their spare time on class preparation, 29.45% of their spare time socializing and exercising, 9.83% of their spare time taking co-curricular activities and community service, 3.19% of their spare time working for pay. However, the standard deviations indicated that there was considerable variation in how students allocated their time to these activities. We further found that all the students could be classified into four types: positive scholar (62.48%), social expert (15.70%), active volunteer (12.98%), and enthusiastic worker (8.83%) by fitting models that identified between two and six latent classes. Regression results show that students’ gender, major fields, and family income were predictive of students’ time allocation. Specifically, females were more likely to be active volunteers rather than positive scholars; students majoring in physical and life science fields, as well as mathematics and computer science compared to students majoring in social science, were less likely to be enthusiastic workers rather than positive scholars. Notably, students from low-income families were less likely to be active volunteers relative to positive scholars, while students from high-income families were more likely to be social experts. Additionally, we found no significant relationship between previous experience and students’ types of time allocation. As Kuh et al. (2005) have argued, what students do during colleges counts more in terms of desired outcomes than who they are or where they go to college (Pike & Kuh, 2005). The analyses on college students’ time allocation would help us gain a clearer insight into student development. What is more, the heterogeneous types of students also showed that social time had both structural and dynamic characteristics, which was of great significance for administrators to help first-year students better adapt to college life and achieve academic success in the future. References Adam, B. (1994). Time and social theory (Pbk. ed.). Cambridge [England];Philadelphia;: Temple University Press. Armstrong, E. A., & Hamilton, L. T. (2013). Paying for the party: how college maintains inequality. Cambridge, Mass: Harvard University Press. Arum, R., & Roksa, J. (2011). Academically adrift: limited learning on college campuses. Chicago: University of Chicago Press. Cambridge-Williams, T., Winsler, A., Kitsantas, A., & Bernard, E. (2013). University 100 Orientation Courses and Living-Learning Communities Boost Academic Retention and Graduation via Enhanced Self-Efficacy and Self-Regulated Learning. Journal of college student retention : Research, theory & practice, 15(2), 243-268. doi:10.2190/CS.15.2.f Crispin, L. M., & Kofoed, M. (2019). DOES TIME TO WORK LIMIT TIME TO PLAY?: ESTIMATING A TIME ALLOCATION MODEL FOR HIGH SCHOOL STUDENTS BY HOUSEHOLD SOCIOECONOMIC STATUS. Contemporary economic policy, 37(3), 524-544. doi:10.1111/coep.12411 Fosnacht, K., McCormick, A. C., & Lerma, R. (2018). First-Year Students' Time Use in College: A Latent Profile Analysis. Research in higher education, 59(7), 958-978. doi:10.1007/s11162-018-9497-z Hartmut, R. (2010). Acceleration. The change in the time structures in the modernity. Studia socjologiczne, 4(199), 237-254. Retrieved from https://go.exlibris.link/9mxFCPqQ Innis, K., & Shaw, M. (1997). How do students spend their time? Quality assurance in education, 5(2), 85-89. doi:10.1108/09684889710165134 Jaeger, M. M. (2009). Equal Access but Unequal Outcomes: Cultural Capital and Educational Choice in a Meritocratic Society. Social forces, 87(4), 1943-1971. doi:10.1353/sof.0.0192 Lanza, S. T., & Cooper, B. R. (2016). Latent Class Analysis for Developmental Research. Child development perspectives, 10(1), 59-64. doi:10.1111/cdep.12163 Lingo, M. D., & Chen, W.-L. (2023). Righteous, Reveler, Achiever, Bored: A Latent Class Analysis of First-Year Student Involvement. Research in higher education, 64(6), 893-932. doi:10.1007/s11162-022-09728-1 Lubke, G., & Muthen, B. O. (2007). Performance of factor mixture models as a function of model size, covariate effects, and class-specific parameters. Structural equation modeling, 14(1), 26-47. doi:10.1207/s15328007sem1401_2 Pace, C. R. (1981). Measuring the Quality of Undergraduate Education. Pike, G. R., & Kuh, G. D. (2005). First- and Second-Generation College Students: A Comparison of Their Engagement and Intellectual Development. The Journal of higher education (Columbus), 76(3), 276-300. doi:10.1353/jhe.2005.0021 Toutkoushian, R. K., & Smart, J. C. (2001). Do Institutional Characteristics Affect Student Gains from College? Review of higher education, 25(1), 39-61. doi:10.1353/rhe.2001.0017 Vermunt, J. K., & Magidson, J. (2003). Latent class models for classification. Computational statistics & data analysis, 41(3), 531-537. doi:10.1016/S0167-9473(02)00179-2 22. Research in Higher Education
Paper Student Workload Determination Practices and their Relationship to Study Time, Perceived Workload and Academic Achievement in Higher Education University of Oulu, Finland Presenting Author:This presentation discusses the role of the European Credit Transfer and Accumulation System (ECTS) as a key instrument for determining student workloads in the European Higher Education Area (EHEA) countries. The central premise of the work is the ECTS system's assumption of a predefined amount of study time to achieve certain learning outcomes, usually ranging from 25 to 30 hours per ECTS credit (European Commission, 2015; Wagenaar, 2019). In particular, the aim is to compare the views of teaching staff on the workload determination practices with students' experiences of workload in studies, and their use of time. An important added value of the project compared to previous research is that it considers the perspectives of both teaching staff and students. In the case of students, there is already an established tradition of research on the subject. However, this literature has been characterized by a particular disagreement on the definition of workload: while in credit systems such as ECTS, workload is mainly understood as a function of time spent studying (Wagenaar, 2019), other literature has emphasised that time spent studying and students’ perceived workload are not the same (Bowyer, 2012; D'Eon & Yasinian, 2022). Despite the broad acceptance of ECTS, the system's performance has faced increasingly serious challenges: firstly, the actual time spent on studies does not seem to correspond to the time allocated to studies as expressed in ECTS (Souto Iglesias & Baeza Romero, 2018). Time use also appears to be weakly related to students' experience of workload in their studies (Kember, 2004; Smith, 2019). Moreover, time itself is an unreliable indicator of learning: instead, both student time use and perceived workload (Herrero-de Lucas et al., 2021) and other relevant factors such as the quality of time use and student ability (Masui et al., 2013) need to be considered if we are to present reliable models of student success in higher education. As for the teachers' perspective, previous research has been less extensive and more scattered than the interest in the students' perspective. There has been however, some guiding literature on how the workload for studies should be determined (e.g. Bowyer, 2012; Northup-Snyder et al., 2020). In addition, some comparative studies have shown that the study time estimated by teachers does not properly align with the actual time use of students (Alshamy, 2017; Scully & Kerr, 2014). Individual studies have also explored teachers' perceptions of ECTS as part of their work (Gleeson et al., 2021). Beyond these, there seems to have been little attention paid to teachers' specific ways and practices of determining course workloads and, for example, the challenges they perceive to be associated with this work. In relation to this framework, the current study aims to: 1) map the practices, experiences and perceptions of teaching staff in determining course workloads; 2) map students' perceptions of these practices for determining workload, and their relationship to students' time use, perceived workload, and academic performance; and 3) compare how the views of teaching staff relate to data collected from students on the workload determination practices, time use, and their perception of workload. In sum, the project aims to build a more holistic and up-to date data and theory on workload determination practices in higher education. As such, the study is part of a wider research project whose main objective is to examine problems of time in higher education theory, policy and practice. Methodology, Methods, Research Instruments or Sources Used The study is based on an ongoing survey-type data collection that is being conducted between January and March 2024 in two Finnish higher education institutions, one a research-intensive university and the other a university of applied sciences. These two educational institutions comprise around 2,750 teaching and research staff members and 23,200 students (PhD-level excluded) from a wide range of disciplines, including but not limited to humanities, education, social sciences, business, technology, engineering, natural sciences and health. In practice, there are two parallel data collections, one for teaching staff and one for students. In addition to key background variables (i.e., educational background and teaching experience), the survey for teaching staff explores teachers' experiences of the determination of course workloads, along with their views on the effectiveness, experienced challenges, meaningfulness, and the factors perceived as important for successful course workload estimations. In contrast, the survey prepared for students, in addition to background variables (i.e., the respondent's field of study and degree level), maps students' current number of ongoing studies as expressed in ECTS credits, total weekly time use (e.g. time spent on contact teaching, independent study and paid work), perceived workload in studies, opinions concerning the course workload estimations, and self-assessed academic performance. The data collection on students includes a 7-week follow-up period covering one teaching period in spring 2024. The current response rate (30.1.2024) is 8% (n=223) for teaching staff and 3% (n=706) for students in the first round of data collection. Both the teaching staff and student surveys are mainly based on Likert-scale items, which are to be used in the analysis phase as a basis for confirmatory factor analysis (CFA) and structural equation modelling (SEM) performed via SPSS and AMOS. In addition, some variables, such as time use and number of credits, were measured in continuous scales (i.e., hours and credits). The quantitative data collection is complemented by open-ended questions, from which the data will be processed by means of qualitative content analysis. The aim is to have some of the main results ready for presentation at the conference. Conclusions, Expected Outcomes or Findings If successful, this research could prove useful for higher education theory, policy and practice in a number of ways. Firstly, it can provide information on the ways in which higher education is designed, particularly in relation to the practices of credit allocation and workload determination practices. Ideally, research can inform the development of curriculum systems and practices from the perspectives of both teachers and students. It can, for example, provide new insights into the challenges teachers face in determining student workloads and how to design them more appropriately and equitably in the future. Secondly, this research can provide a more up-to-date understanding of the relationship between time and workload and academic performance in the context of higher education students. Although the current study is a case study of two higher education institutions based on data collected in Finland, it can serve as a valuable example and inspiration for similar studies in other regional HE systems in EHEA countries. In addition, the results of the study can be compared with already existing data collections and studies, such as EUROSTUDENT (n.d.) project, which has been collecting data on students' time budgets for more than 20 years. Overall, this study could at best help to develop more appropriate workload determination practices on higher education institutions, in particular in relation to the diversity of student workloads, time use and life situations. References Alshamy, A. (2017). Credit hour system and student workload at Alexandria University: A possible paradigm shift. Tuning Journal for Higher Education, 4(2), 277-309. Bowyer, K. (2012). A model of student workload, Journal of Higher Education Policy and Management, 34:3, 239–258, https://doi.org/10.1080/1360080X.2012.678729 D’Eon, M., & Yasinian, M. (2022). Student work: a re-conceptualization based on prior research on student workload and Newtonian concepts around physical work. Higher Education Research & Development, 41:6, 1855-1868 https://doi.org/10.1080/07294360.2021.1945543 European Commission, Directorate-General for Education, Youth, Sport and Culture, (2015). ECTS users' guide 2015, Publications Office of the European Union. https://data.europa.eu/doi/10.2766/87192 EUROSTUDENT. (n.d.). Retrieved 24.1.2024 from https://www.eurostudent.eu/ Gleeson, J., Lynch, R., & McCormack, O. (2021). The European Credit Transfer System (ECTS) from the perspective of Irish teacher educators. European Educational Research Journal, 20(3), 365-389. https://doi.org/10.1177/1474904120987101 Herrero-de Lucas, L. C., Martínez-Rodrigo, F., de Pablo, S., Ramirez-Prieto, D., & Rey-Boué, A. B. (2021). Procedure for the Determination of the Student Workload and the Learning Environment Created in the Power Electronics Course Taught Through Project-Based Learning. IEEE Transactions on Education, vol. 65, no. 3, pp. 428-439, Aug. 2022, DOI: 10.1109/TE.2021.3126694 Kember, D. (2004). Interpreting student workload and the factors which shape students' perceptions of their workload. Studies in higher education, 29(2), 165-184. https://doi.org/10.1080/0307507042000190778 Masui, C., Broeckmans, J., Doumen, S., Groenen, A., & Molenberghs, G. (2014). Do diligent students perform better? Complex relations between student and course characteristics, study time, and academic performance in higher education. Studies in Higher Education, 39(4), 621-643. https://doi.org/10.1080/03075079.2012.721350 Northrup-Snyder, K., Menkens, R. M., & Ross, M. A. (2020). Can students spare the time? Estimates of online course workload. Nurse Education Today, 90, 104428. https://doi.org/10.1016/j.nedt.2020.104428 Plant, E. A., Ericsson, K. A., Hill, L., & Asberg, K. (2005). Why study time does not predict grade point average across college students: Implications of deliberate practice for academic performance. Contemporary educational psychology, 30(1), 96-116. https://doi.org/10.1016/j.cedpsych.2004.06.001 Scully, G., & Kerr, R. (2014). Student workload and assessment: Strategies to manage expectations and inform curriculum development. Accounting Education, 23(5), 443-466. https://doi.org/10.1080/09639284.2014.947094 Smith, A. P. (2019). Student workload, wellbeing and academic attainment. In Human Mental Workload: Models and Applications: Third International Symposium, H-WORKLOAD 2019, Rome, Italy, November 14–15, 2019, Proceedings 3 (pp. 35-47). Springer International Publishing. https://doi.org/10.1007/978-3-030-32423-0_3 Souto-Iglesias, A., & Baeza_Romero, M. T. (2018). A probabilistic approach to student workload: empirical distributions and ECTS. Higher Education, 76(6), 1007-1025. https://doi.org/10.1007/s10734-018-0244-3 Wagenaar, R. (2019). A History of ECTS, 1989-2019: Developing a World Standard for Credit Transfer and Accumulation in Higher Education. Retrieved 30.1.2024 from https://hdl.handle.net/11370/f7d5a0e2-3218-4c66-b11d-b4d106c039c5 |
Date: Wednesday, 28/Aug/2024 | |
9:30 - 11:00 | 22 SES 04 A: New Digital Challenges in HE Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Carolyn Julie Swanson Paper Session |
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22. Research in Higher Education
Paper Examining the challenges and opportunities of Generative AI use in Higher Education 1University of Melbourne, Australia; 2Deakin University Presenting Author:Generative AI (GenAI) is a specific type of Artificial Intelligence that can create new content in the form of text, images, music, code, and various other forms of digital media by using machine learning or ‘training’. ChatGPT is an example of a GenAI application that has been trained on a vast amount of publicly available data. It was made freely available in November 2022, albeit with usage limitations. The launch sparked intense public interest, with initial speculation about what the effects might be for education, jobs, and for society in general.
While ChatGPT was not the first model made available (e.g. GPT-2), it is an advanced model that allows for sophisticated interactions, with the remarkable capability of replicating human-like natural language processing. However, it cannot understand language. It is trained to detect complex patterns and assimilate that information into existing information (Bozkurt, 2023; UNESCO, 2023). As GenAI continues its rapid growth, evolving and improving outputs, there has been a wide range of perspectives, from those who have embraced the technology, those who oppose the technology, and some who are both enthusiastic and/or cautious. Gallant-Torres (2023) identifies the opposing extremes as ‘technophiles who defend it without regard to its risk and technophobes who reject it without considering its benefits.’
Research is beginning to emerge about the affordances and challenges of GenAI use in education. New skills are evolving with the use of GenAI such as ‘prompt engineering’, which is defined as the ‘art of designing, writing and fine-tuning prompts’ to elicit the most accurate and relevant responses from GenAI applications (Eager & Brunton, 2023). There have been significant opportunities that have already been identified as being embraced in higher education settings, such as integrating technology to promote learner-AI collaboration (Tan, Chen & Chua, 2023), personalised feedback and adaptive learning pathways (Eager & Brunton, 2023), automating processes, innovations in teaching and assessment and creating a more inclusive environment (Adiguzel, 2023; Moya & Eaton, 2023). However, the scope and the extent to which these practices have been adopted remain unclear. There are also complex issues emerging, as Farrelly and Baker (2023) highlight that ‘we are already seeing that minority and marginalised students are being accused of breaching academic integrity rules …perpetuating an existing inequitable pattern’. In 2021, UNESCO released ‘Recommendations on The Ethics of Artificial Intelligence’. The first statement highlights the importance of ‘the profound and dynamic positive and negative impacts of AI on societies, environment, ecosystems and human lives, including the human mind’ (UNESCO, 2021). The call for setting standards relating to AI technologies happened well before the launch of ChatGPT and the numerous other generative AI tools released since then. It is evident that GenAI has now been integrated into higher education settings (Ipek, 2023), amidst concerns about what the potential impacts could be on disciplinary knowledge and the assessment of key knowledge and skills. It is in this context that our research study aimed to examine the use of generative AI by academics and students in higher education, and their perceptions of the impact that the technology would have on teaching and learning. The key research question is:
Methodology, Methods, Research Instruments or Sources Used The data for this study was generated from April 24 to November 30, 2023, using a Qualtrics online survey. Students and academics answered questions that were tailored to each participant group, which were organised around four themes: 1) awareness of GenAI (e.g. ChatGPT); 2) current use and intention to use GenAI; 3) potential of GenAI to contribute to learning and assessment; 4) affordances and challenges related to the use of GenAI; and 5) support provided for using GenAI in higher education settings. The findings are based on survey responses from 243 students and academics, with two distinct data collection periods in semesters 1 and 2 to track how the use of GenAI changed during the first year it became available. The survey invited students who were enrolled in any course or degree program at a university, and academic staff in roles such as tutors and lecturers to participate. In the results, those who were enrolled in a course or program are referred to as ‘students’ and those with teaching roles are referred to as ‘academics’. The Qualtrics platform and Excel were used to analyse the quantitative responses to Likert questions. Questions that asked for a short text response were analysed using inductive thematic coding using NVivo. Axial coding was used to find relationships between first pass codes, and to iteratively assign categories that were derived from these relationships. The key categories that emerged from this process were able to be classified as either opportunities or challenges related to the use of GenAI in higher education. This was the first study in Australia to generate data on the use of GenAI and the perspectives of students and academics in higher education during a time when GenAI was gaining momentum and new products, such as models with the capability to generate information text-to-text, text-to-image, image-image and image-text, were rapidly being released to consumers. Conclusions, Expected Outcomes or Findings Students shared the purposes for which they used GenAI, including generating different outputs when assessment instructions and criteria were unclear, as a study partner, to generate revision materials and feedback on their work, to create plans, restructure writing, brainstorming, summarising literature, referencing, generating images, and students with English as a second language found the enhanced language support helpful. Academics also reported using GenAI to generate summaries and create information. Additionally, they used GenAI to develop teaching materials and exam questions, as a research tool, and to check what GenAI responses would be produced for set assessment tasks. One of the key challenges identified by respondents was the reliability of GenAI to produce accurate information and references. They found it difficult to fact check and had concerns about misinformation being reproduced. Other concerns related to the impact the techbology would have on learning and assessment, particularly in relations to people becoming reliant on technology rather than using ‘human thinking’. Ethical concerns about the difficulty detecting plagiarism were identified, as was equitable access and the possible impact on increasing the digital divide, especially for those who might not have access modern technology, tools and current information. As one academics stated, “There are so many ethical issues to work out in relation to AI, but we need to assist staff and students to understand appropriate boundaries, affordances and limitations of this technology. It will create an even bigger digital divide and inequality by placing limitations on what we want students to know and understand. It's important not to be left behind in this debate.” While there is potential for GenAI to enhance teaching and learning in higher education, critical issues remain on the impact of the technology on reliability, accessibility and ethical use in academia. References Adiguzel, T., Kaya, M. H., & Cansu, F. K. (2023). Revolutionizing Education with AI: Exploring the Transformative Potential of ChatGPT. Contemporary Educational Technology, 15(3). Bozkurt, A. (2023). Generative Artificial Intelligence (AI) Powered Conversational Educational Agents: The Inevitable Paradigm Shift. Asian Journal of Distance Education, 18(1), 198–204. Eager, B., & Brunton, R. (2023). Prompting Higher Education Towards AI-Augmented Teaching and Learning Practice. Journal of University Teaching & Learning Practice, 20(5), 1–19. https://doi.org/10.53761/1.20.5.02 Farrelly, T., & Baker, N. (2023). Generative Artificial Intelligence: Implications and Considerations for Higher Education Practice. Education Sciences, 13(11), 1109. https://doi.org/10.3390/educsci13111109 Gallent-Torres, C., Zapata-González, A., & Ortego-Hernando, J. L. (2023). The impact of Generative Artificial Intelligence in higher education: a focus on ethics and academic integrity. Electronic Journal of Educational Research, Assessment & Evaluation / Revista Electrónica de Investigación y Evaluación Educativa, 29(2), 1–19. Ipek, Z. H., Gözüm, A. I. C., Papadakis, S., & Kallogiannakis, M. (2023). Educational applications of the ChatGPT AI system: a systematic review research. Educational Process: International Journal, 12(3), 26–55. Moya, B. A., & Eaton, S. E. (2023). Examining Recommendations for Generative Artificial Intelligence Use with Integrity from a Scholarship of Teaching and Learning Lens. Electronic Journal of Educational Research, Assessment & Evaluation / Revista Electrónica de Investigación y Evaluación Educativa, 29(2), 1–21. https://doi.org/10.30827/relieve.v29i2.29295 https://doi.org/10.30827/relieve.v29i2.29134 UNESCO. (2023). Guidance for generative AI in education and research. United Nations Educational, Scientific and Cultural Organization. https://unesdoc.unesco.org/ark:/48223/pf0000386693_eng UNESCO. (2022). Recommendation on the Ethics of Artificial Intelligence. United Nations Educational, Scientific and Cultural Organization. https://unesdoc.unesco.org/ark:/48223/pf0000381137 22. Research in Higher Education
Paper ChatGPT in Higher Education: Exploring Challenges and Possibilities for Academic Literacy and Student Engagement Södertörn University, Sweden Presenting Author:Recent advancements in Artificial Intelligence (AI) technologies have sparked discussions within higher education(Kramm & McKenna, 2023; Peters et al., 2023; Popenici, 2023). Among these tools, ChatGPT stands out for its capacity to generate text, provide personalized recommendations, and potentially improve student learning outcomes. However, concerns have been raised about the impact of such AI tools on higher education teaching and academic integrity(Blackie, 2024; Rawas, 2023). This study aims to explore the intersection of artificial intelligence and education, with a specific focus on ChatGPT and its potential applications in higher education. More specifically, this paper seeks to investigate the possibilities of integrating ChatGPT into higher education courses with the goal of enhancing academic literacy and improving students' learning experiences. The study addresses two key objectives: (i) the integration of artificial intelligence tools, particularly ChatGPT, into higher education courses, and (ii) understanding the perceptions of students and their engagement with ChatGPT within the context of their academic activities. Drawing inspiration from situated/sociocultural perspectives in learning and Gee's (2008) concept of a "mediating device," we explore how learners’ understanding and capabilities are transformed when engaging with ChatGPT. As Gee(2008) suggests, what learners can understand and accomplish with a mediating device differs significantly from what they can do without it. When individuals engage with mediating devices, knowledge becomes distributed—some is manifested in their minds, some in their coordination with tools, and some in the tools themselves. This perspective informs our exploration of the impact of ChatGPT as a mediating device in enhancing students' learning experiences and academic literacy. Methodology, Methods, Research Instruments or Sources Used The study utilises a case study design, chosen for its suitability in exploring real-life activities within a specific context. The context, in this instance, was a pedagogy course on the philosophy of education at a Swedish higher education institution. The participants consisted of 8 first-year bachelor's students who were followed throughout the entire duration of the course, spanning one month. For the data analysis, a qualitative approach was employed for the examination of interview transcripts, writing assessments, and observational notes. The material combined students’ reflections and writing assessments with observational data from the course, offering a comprehensive understanding of ChatGPT's impact on students' experiences and academic outcomes. Coding and thematic analysis were applied to identify patterns and themes in the collected data. To uphold ethical standards, participant confidentiality was ensured, and voluntary participation was emphasised, with informed consent obtained from all participants before the study initiation. Conclusions, Expected Outcomes or Findings The preliminary findings highlight that the use of ChatGPT, when applied in a structured and informed manner, can positively influence both students' academic literacy and their overall engagement. Simultaneously, the findings underscore the significance of social aspects within courses, such as lectures and group work, in shaping the learning processes. The interplay between the integration of ChatGPT and the social dynamics of traditional teaching methods is crucial in understanding the possibilities of AI on students’ learning experiences. References Blackie, M. A. L. (2024). ChatGPT is a game changer: Detection and eradication is not the way forward. Teaching in Higher Education, 0(0), 1–8. https://doi.org/10.1080/13562517.2023.2300951 Gee, J. P. (2008). A Sociocultural Perspective on Opportunity to Learn. In D. C. Pullin, E. H. Haertel, J. P. Gee, L. J. Young, & P. A. Moss (Eds.), Assessment, Equity, and Opportunity to Learn (pp. 76–108). Cambridge University Press. https://doi.org/10.1017/CBO9780511802157.006 Kramm, N., & McKenna, S. (2023). AI amplifies the tough question: What is higher education really for? Teaching in Higher Education, 28(8), 2173–2178. https://doi.org/10.1080/13562517.2023.2263839 Peters, M. A., Jackson, L., Papastephanou, M., Jandrić, P., Lazaroiu, G., Evers, C. W., Cope, B., Kalantzis, M., Araya, D., Tesar, M., Mika, C., Chen, L., Wang, C., Sturm, S., Rider, S., & Fuller, S. (2023). AI and the future of humanity: ChatGPT-4, philosophy and education – Critical responses. Educational Philosophy and Theory, 0(0), 1–35. https://doi.org/10.1080/00131857.2023.2213437 Popenici, S. (2023). Artificial Intelligence and Learning Futures: Critical Narratives of Technology and Imagination in Higher Education (1st edition). Taylor & Francis Ltd. Rawas, S. (2023). ChatGPT: Empowering lifelong learning in the digital age of higher education. Education and Information Technologies. https://doi.org/10.1007/s10639-023-12114-8 22. Research in Higher Education
Paper Implications of ChatGPT for Education Policy and Global Citizenship: A Case Study in Initial Teacher Training University of Lisbon, Portugal Presenting Author:The availability to the public of the Generative Artificial Intelligence tool ChatGPT has led to several reactions in society at different levels. Regarding higher education several challenges have arisen, especially in terms of ethics and evaluation, and its integration into teaching and research practices. In this study, we intend to explore mainly the issues related to the integration and ways of using ChatGPT in higher education, especially in initial teacher training, and the implications of this use for education policies and global citizenship. With the rapid development and widespread accessibility of Generative Artificial Intelligence (Gen-AI), it is paramount to understand its implications in various areas of society, in terms of knowledge creation and its contribution to the Sustainable Development Goals (UNESCO, 2021), notwithstanding the necessary epistemological reflection on its use (Figueiredo, 2023). In higher education, Artificial Intelligence (AI) has the potential to completely transform teaching and learning (Rawas, 2023). The potential of ChatGPT shows remarkable benefits in teaching, research support, automated grading, administrative management, and human-computer interaction (Dempere et al., 2023). It can provide individualized recommendations to students, increase collaboration and communication, and further improve their learning outcomes (Rawas, 2023). However, have been identified ethical concerns and implementation issues about security in student assessment and plagiarism, misuse, and the possibility of misinformation, as well as wider social and economic impacts such as job displacement, the digital literacy gap, or decreased human interaction (Dempere et al., 2023; Rawas, 2023). ChatGPT, as a Gen-AI tool, can help conversationally with writing, learning, solving and assessment, as an assistant for instructors and a virtual tutor for students (Lo, 2023). A literature review highlights measures relating to assessment methods and the necessary institutional policies. Rethinking assessment tasks to reduce the risk of plagiarism by requiring students to demonstrate their skills in real-time and in person, for example. Course content, learning outcomes and assessment methods can also be modified to circumvent ChatGPT, by using it to generate lesson topics, test and exam questions, homework, or product ideas (De Winter, 2023). On the other hand, from a more constructive and training perspective, it will also be important to promote students' digital literacy in the use of Gen-AI tools. Teaching students about the risks of relying on AI-based technologies is important. These risks include hallucinations, which are false responses generated by AI, presented as facts, not explained by the training data (Dempere et al., 2023). For this reason, it is important to integrate these technologies responsibly, as a supplement to and not a replacement for human interaction (Fuchs, 2023), and there is a pressing need to regulate AI in Higher Education Institutions (HEIs). As far as initial teacher training (ITT) is concerned, this phenomenon is even more relevant, since these students, as future teachers, will soon be training pupils in education systems. It requires teachers and students develop digital competences and literacies, with a strong focus on critical thinking and fact-checking strategies (Kasneci et al., 2023). Methodology, Methods, Research Instruments or Sources Used A qualitative approach will be used with recourse to non-participant observation and narrative research methods through the analysis of experiences developed in the curricular unit Initiation to Professional Practice of a Master’s in Teaching. To this end, data was collected taking into account: i) what are the main difficulties and constraints in use; ii) what are the benefits in the planning and preparation of classes; iii) what are the adaptations to instructional methods, form of assessment, and pedagogical practices needed to use the ChatGPT in the teaching and learning process in an ethical and safe way. In addition to the data from the empirical study, supported by the literature review, two Gen-AI tools, ChatGPT and Elicit, were trialled and their outputs analysed. Given the recent availability of these Gen-AI tools to the public, quality scientific studies published in the Scopus and WoC databases on this subject are still scarce, and the quality of the articles mobilised was prioritised over quantity. The study's qualitative approach took a naturalistic and hermeneutic perspective, using content analysis of the field notes from non-participant observation and of student narratives carried out as a final assignment (Amado, & Freire, 204; Bardin, 2013). This methodology is often used in research in the social sciences and education, as the researcher is dealing with complex situations in which it is difficult to select variables. In this way, the researcher seeks to describe and analyse a phenomenon and its interactions and does not intend to quantify or generalise. The narrative research method provides in-depth knowledge of the respondents' experiences and is based on a constructivist and interpretive epistemology (Rabelo, 2011). It considers that a narrative can express the complexity of the experience, as well as the relationships and uniqueness of each action (Bolívar et al., 1998), allowing knowledge to be obtained through an account that captures the details of meanings beyond factual statements or abstract propositions. Finally, it should be noted that informed consent was obtained from the study participants, thirteen preservice teachers, and their identity and anonymity were safeguarded, in accordance with the institution's ethics charter and international benchmarks, as Ethical Guidelines for Educational Research (BERA, 2011). Conclusions, Expected Outcomes or Findings Generative AI literacy will be an indispensable asset, as it provides students with the skills to critically engage with AI systems, ensuring that they become active and discerning users. At the same time, prompt engineering makes it possible to improve the outputs generated in a more precise way and enables educators and students to maximize the usefulness of the educational resources created by AI (Bozkurt, 2023). This study corroborates that, for the development of AI literacy, it is important to acquire proficiency in understanding, interacting with and critically evaluating generative AI technologies, which is essential not only for the current digital age, but also for shaping the future of education. It is also important to understand the ethical considerations, prejudices and limitations inherent in such systems, as well as to promote critical thinking and digital citizenship among students, teachers and researchers. So, Gen-AI literacy can and should be integrated into the curriculum to cultivate a new generation of informed and responsible users, and teachers should adapt their teaching methods to incorporate AI, preparing students for a future where it is an integral part of their personal and professional lives. The impact of AI on education and higher education cannot be ignored, and it is essential to integrate it into teacher education as well (Moura, & Carvalho, 2024). Recommendations include emphasizing a humanistic approach, mobilizing interdisciplinary planning, empowering teachers, and enhancing trust and safety. It also concludes that it is essential to address and include issues relating to artificial intelligence in higher education and to reflect them in legislation and educational policy. References Amado, J., & Freire, I. (2014). Estudo de caso na Investigação em Educação [Case study in Education Research]. In Manual de investigação qualitativa em educação [Handbook of qualitative research in education], (pp.121–168). Imprensa da Universidade de Coimbra. Bardin, L. (2013). Análise de Conteúdo [Content Analysis]. Edições 70. Bolívar, A., Domingo, J., & Fernández, M. (1998). La investigación biográfico–narrativa en educación. Guía para indagar en el campo. [Biographical-narrative research in education. A guide to research in the field.]. Grupo FORCE, Universidad de Granada, Grupo Editorial Universitario. Bozkurt, A. (2023). Unleashing the Potential of Generative AI, Conversational Agents and Chatbots in Educational Praxis: A Systematic Review and Bibliometric Analysis of GenAI in Education. OpenPraxis, 15(4), 261–270. https://doi.org/10.55982/openpraxis.15.4.609 De Winter, J.C.F., Dodou, D., & Stienen, A.H.A. (2023). ChatGPT in Education: Empowering Educators through Methods for Recognition and Assessment. Informatics, 10, 87. https://doi.org/10.3390/ informatics10040087 Dempere, J., Modugu, K., Hesham, A., & Ramasamy, L.K. (2023). The impact of ChatGPT on higher education. Front. Educ., 8, 1206936. https://doi.org/10.3389/feduc.2023.1206936 Ethical Guidelines for Educational Research (BERA) (2011). Available online: https://eera-ecer.de/about-eera/ethical-guidelines (accessed on 9th January 2024). Figueiredo, A. D. (2023). Inteligência Artificial Generativa e Construção de Conhecimento (Generative Artificial Intelligence and Knowledge Building). Personal communication. In Processamento de Linguagem Natural: Tendências e Aplicações Práticas Conference. https://doi.org/ 10.13140/RG.2.2.25801.52328 Fuchs, K. (2023). Exploring the opportunities and challenges of NLP models in higher education: is Chat GPT a blessing or a curse. Front. Educ, 8. https://doi.org/10.3389/feduc.2023.1166682 Kasneci, E., Sessler, K., Küchemann, S., Bannert, M., Dementieva, D., Fischer, F., et al. (2023). ChatGPT for good? On opportunities and challenges of large language models for education. Learning and Individual Differences, 103, 102274. https://doi.org/10.1016/j.lindif.2023.102274 Lo, C.K. (2023). What Is the Impact of ChatGPT on Education? A Rapid Review of the Literature. Educ. Sci., 13, 410. https://doi.org/10.3390/educsci13040410 Moura, A., & Carvalho, A. A. (2024). Literacia de Prompts para Potenciar o Uso da Inteligência Artificial na Educação [Prompt Literacy to Enhance the use of Artificial Intelligence in Education]. RE@D - Revista de Educação a Distância e Elearning, 6(2), e202308. https://doi.org/10.34627/redvol6iss2e202308 Rawas, S. (2023). ChatGPT: Empowering lifelong learning in the digital age of higher education. Educ Inf Technol. https://doi.org/10.1007/s10639-023-12114-8 Rabelo, A. O. (2011). A importância da investigação narrativa na educação [The importance of narrative enquiry in education.]. Educação & Sociedade, 32(114), 171-188. https://doi.org/10.1590/S0101-73302011000100011 UNESCO (2021). AI and education: Guidance for policy-makers. UNESCO. https://doi.org/10.54675/PCSP7350 |
13:45 - 15:15 | 22 SES 06 A: Interdisciplinarity and Service-Learning in HE Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Patrick Baughan Paper Session |
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22. Research in Higher Education
Paper Qualifying the Debate on Interdisciplinarity in Higher Education – Human- and Social Scientific Perspectives on a University-wide STEM/SSH Interdisciplinarity Project Aalborg University, Denmark Presenting Author:When confronted with Uncertainty and crisis, higher education has historically turned to interdisciplinarity as a means of promoting innovation. This was the case in 1970 when OECD hosted the Interdisciplinarity. Problems of teaching and research in universities conference (Apostel, 1972). In current European higher education policy, interdisciplinarity is an integral part of the green transition, transnational higher education collaboration, and development of competences for an increasingly technologized labor market (Jæger, forthcoming). Many universities respond to such policies by encouraging interdisciplinary collaboration in research and education. This paper will qualify the debate on interdisciplinarity in higher education by investigating a current case involving an interdisciplinarity project at a Danish PBL university. We ask: which general takeaways emerge from analyzing a current interdisciplinarity project initiated as a catalyst for higher education innovation and SSH/STEM-integration, from a social- and human science perspective? The case project elements Collaboration between STEM and SSH programs: As part of the 2022 to 2026 strategy to be a mission-oriented university, the university management encourages educational programs to increase collaboration across disciplinary and departmental boundaries, particularly in the form of collaboration across the SSH/STEM divide. New skills in focus: The goal of the new interdisciplinarity project is to educate graduates with advanced collaboration skills, phrased as a “focus on holistic thinking”, “ability to work across disciplines” “affect and adapt to the development of society” and “enhance students’ ability to transcend their own disciplinary domain and engage in cross-boundary cooperation” (AAU Strategy 2022–2026). Transdisciplinarity as the end goal: the university encourages collaboration projects that range from relatively limited interaction between disciplines and programs (but still ensuring that students become familiar with ‘foreign’ disciplines) to collaboration forms that require students to engage in joint problem-solving through integration of disciplinary perspectives and engagement of external partners. Later, cross-program get-to-know activities are likely to become mandatory. Study activities that require individual students to work in project groups composed of students from different disciplines will be arranged as elective modules.
Theoretical-Analytical approaches Though interconnected, we distinguish between two dimensions of interdisciplinarity (Hultengren 1979) in our analysis: A) The epistemological dimension relates to the processes of scientific work B) The educational-organizational dimension relates to the formation of certain competences in students When we preliminarily turn to the existing practices of interdisciplinarity within the case university, we identify shared characteristics by several programs within the SSH faculty. This leads us to inquire into the historical background of these programs. Mostly forgotten today it turns out they share a period in the 1970s where a specific pedagogical tradition, the problem-oriented project pedagogy tradition (Hultengren 1976, Illeris 1974), was very influential. According to this tradition the project work of students is student-directed and problem-oriented, and problem-orientation “entails interdisciplinarity”, because it is the identified authentic problem - and not the traditions of the discipline – that is guiding the choice of theory and methods (Illeris 1981:15,99). The emphasis on interdisciplinarity within the tradition is inspired by the OECD 1970 conference and social critique (Hultengren, 1979). Methodology, Methods, Research Instruments or Sources Used Case study Insights regarding implications of large-scale interdisciplinarity projects are reached through a case study approach. The data informing the case study consist of university policies (mission statements), concept papers produced during the project’s planning phase, records of seminars, workshops and meetings held during the project’s piloting phase, and finally presentations of initiated pilot projects at program level. The study aims for a nuanced understanding of the project’s underlying rationale and its implications as it unfolds in local contexts and seeks to realize the ideals of a descriptive case study (Flyvbjerg 2006, Gerring & Cojocaru 2016). Insider action research As the involved researchers are members of the academic staff of the case organization, and as one or more of the researchers participated in several of the activities constituting the project’s planning and pilot phase, we take inspiration in the “insider action research” approach (Coghlan & Holian 2021). The insider action research (IAR) approach characterizes a type of research conducted by organizational members into organizational change processes that involve “real organizational issues” (Coghlan & Holian 2021, p 14), in other words not projects or experiments initiated for the purpose of research. IAR draws on collaborative relations to organizational members and units and deep contextual knowledge. As positioned in the university’s PBL research unit (Institute for Advanced Studies in PBL), a unit that is directly involved in managing the case project, the researchers are a position to both follow the project closely and, to some extent influence it within the boundaries set by the university leadership. Deep contextual knowledge also includes intimate understanding of an organization’s history and its intellectual and cultural roots. Thus, the study includes a literature and document study of interdisciplinarity’s role in the foundation of the case university as a Danish reform university (Andersen & Keldsen 2015) based on problem- and project-based learning. Hermeneutical-phenomenological research paradigm Following Blaikie’s (2009) work on research design we take a range of elements into consideration before commencing serious empirical research processes, to reflect major design decisions and their implications on other elements. Blaikie (2009) distinguishes between ontological assumptions, epistemological assumptions, research strategy (methodology), data methods, subject theories, ethics and analysis. Following the hermeneutical-phenomenological research paradigm we assume the lifeworld as our ontological foundation (Feilberg et_al,2018), the understanding knowledge-guiding interest as our epistemology (Habermas, 1971), and the hermeneutical circle as our research strategy with interplay between parts and whole, description and interpretation. Conclusions, Expected Outcomes or Findings The case study is expected to provide a detailed description of the multiple understandings of interdisciplinarity involved in a strategic change project promoting interdisciplinarity across programs and departments, of the varied realizations of interdisciplinary teaching and learning as a consequence of the project, and the different forms of institutional and pedagogic ‘frictions’ that project implementation entails. Based on the case study, we expect to be able share findings and take-aways regarding the following themes: Enriched understanding of the complexity of interdisciplinary encounters as they occur between disciplines and programs as a consequence of the project. Is it, for example, possible to reach forms of interdisciplinary integration that go beyond “borrowing” and develop common ontological, methodological and conceptual platforms across differing ontological and epistemological assumptions, in projects that combine SSH and STEM programs? And how does the disciplinary complexity of individual programs impact collaboration across program and department boundaries? Sharpened ontological, epistemological and theoretical concepts helpful for the understanding of differences between disciplines involved in interdisciplinary collaboration, and for analyzing levels of interdisciplinary integration. Development of context-sensitive pedagogic approaches to the facilitation of interdisciplinary encounters in higher education. Strategic promotion of interdisciplinarity will only result in the desired learning outcomes if interdisciplinary collaboration makes sense to the involved teachers and students and the questions and problems they purse. References Aalborg University Strategy 2022–2026. Downloaded 010124 from https://prod-aaudxp-cms-001-app.azurewebsites.net/media/odnnfqrx/aau-strategy-2022-26.pdf Abbott, A. (2001). Chaos of disciplines. Chicago: University of Chicago Press. Apostel, L., Berger, G., Briggs, A. & Michaud, G. (eds.) (1972). Interdisciplinarity. Problems of teaching and research in universities. Organization for Economic Cooperation and Development: Washington D.C. Bernstein, B. (1999). Vertical and horizontal discourse: an essay. British Journal of Sociology of Education. 20(2): 157-173 Blaikie, N. (2009). Designing Social Research. The logic of anticipation. Polity. Brassler, M. (2020). The role of interdisciplinarity in bringing PBL to traditional universities: opportunities and challenges on the organizational, team and individual level. The interdisciplinary journal of problem-based learning 14(2): 1-14. Coghlan, D. & Holian, R. 2021. Insider action research as leadership-as-practice: a methodological reflection for OD scholar-practitioners. Organization Development Review 53(5): 13-17. Collins, H. Evans, R, & Gorman, M. E. 2019. Trading zones revisited. In D. S. Caudill, S. N. Conley, M. E. Gorman, & M. Weinel (eds.). The third wave in science and technology studies. Cham: Springer International Publishing. Feilberg, C., Norlyk, A., & Keller, K. D. (2018). Studying the Intentionality of Human Being: Through the Elementary Meaning of Lived Experience. Journal of Phenomenological Psychology, 49(2), 214-246. Flyvbjerg, B. (2006). ‘Five Misunderstandings about Case-study Research’, Qualitative Inquiry 12(2): 219-245. Habermas, J. (1971). Knowledge and human interests. Appendix: Knowledge and human interests: A general perspective (pp. 301–350). Trans. Shapiro. Boston: Beacon Press. Hultengren, E. (1976). Problemorientering, projektarbejde og rapport- skrivning. Aalborg: Institut for Uddannelse og Socialisering, Aalborg Universitetscenter. Hultengren, E. (1979). Tværfaglighed som politisk undervisning. Aalborg: Institut for Uddannelse og Socialisering, Aalborg Universitetscenter. Illeris, K. (1974). Problemorientering og deltagerstyring: Oplæg til en alternativ didaktik. København: Munksgaard Illeris, K. (1981). Modkvalificeringens pædagogik. Problemorientering, deltagerstyring og eksemplarisk indlæring. København: Unge Pædagoger. Jensen, A. A., Ravn, O. & Stentoft, D. (2019). Interdisciplinarity and Problem-Based Learning in Higher Education. Cham: Springer International Publishing. Jæger, K. (forthcoming). Higher education interdisciplinarity – symmetry across policy levels? In K. Smed, A. M. Macias & K. Jæger (eds.) Working with interdisciplinarity in knowledge communities. Peter Lang. Klein, J. T. 2018. A conceptual vocabulary of interdisciplinary science. In J. T. Klein, N. Stehr & P. Weingart (eds.) Practising interdisciplinarity. Toronto: University of Toronto Press, 3-24. 22. Research in Higher Education
Paper University-Community Reciprocity on Service-learning Projects. How Can it Affect Students? University of Santiago de, Spain Presenting Author:Currently, the conformation of the European Higher Education Area is the central feature defining universities in Europe. Both methodological innovation and social dimension are two of the key elements within the new university model (Santos Rego et al., 2020). This calls for the adoption of a new formative paradigm centred on the student and the strengthening of the social function, as outlined in the Berlin Communiqué (2005). More recently, the Rome Communiqué (2020) proposes that institutions of higher education commit, along with their communities, to engaging in joint activities that are mutually beneficial and socially responsible. Therefore, there is an interest in shaping spaces of convergence between these propositions, as pedagogical innovation can and should place students in contact with society. This positioning leads us to discuss University Social Responsibility, an approach promoting social commitment in all spheres and activities of the Academy. Among other things, this requires that teaching seeks the involvement of students with the community, aiming not only to enhance the meaningfulness of learning but also to contribute to the development of groups and communities near the campuses (Coelho and Menezes, 2021). In this context, service-learning (SL) emerges as a useful methodology to strengthen connections between universities and society. It is defined as "a course-based, credit-bearing educational experience in which students (a) participate in an organized service activity that meets identified community needs and (b) reflect on the service activity in such a way as to gain further understanding of course content, a broader appreciation of the discipline, and an enhanced sense of civic responsibility" (Bringle and Hatcher, 1995, p. 112). These experiences promote the university's engagement with the community and vice versa, ultimately leading to improve academic, social, and professional learning, as well as community growth. In service-learning courses, the balance between universities and social entities or groups is crucial, moving away from positions in which communities are viewed as laboratories where students apply their knowledge (Baker-Boosamra, 2006). However, a significant portion of literature, especially in the European context, has focused on studying the effects of service-learning on student learning (Santos Rego et al., 2021), emphasizing the need to also consider the community in analyses of this methodology (Rodríguez-Izquierdo and Lorenzo, 2023). Over the past two decades, various studies have confirmed the gains that the community obtains from such projects, with central focuses on knowledge exchange and satisfying the needs of entities and/or groups (Nduna, 2007; Schmidt and Robby, 2002; Van Rensburg et al., 2019). However, to strengthen the ties between the university and the community, with the goal of optimizing benefits for both parties, it is essential that the relationship is established on principles of genuine reciprocity. Reciprocity is defined as the inclusion of principles such as respect, trust, genuine commitment, balance of power, shared resources, and clear communication between university institutions and community stakeholders (Jacoby, 2015). Using service-learning, the aim is to foster reciprocal relationships and mutual assistance between the university and social actors, exploring the impact on students as agents of social change (Asghar and Rowe, 2017; Martínez-Usarralde and Chiva-Bartoll, 2020). Therefore, the objective of this study is to analyse whether the type of relationship established with the community in service-learning projects influences the development of transversal competencies in students. This paper is framed in the Research Projects: “Service-Learning (SL) and employability of university graduates in Spain: competences for employment” (EDU2017-82629-R) and “The impact of the university in the community through service-learning projects. A study focused on reciprocity (SL)” (PID2021-122827OB-I00). Methodology, Methods, Research Instruments or Sources Used In this research a quasi-experimental design of two non-equivalent groups was used, with pretest and post-test, and an independent variable, which is the SL project. Specifically, 18 service-learning courses were evaluated in two Spanish universities. The final sample consisted of 568 students: 381 involved in service-learning, forming the experimental group; and 187 peers from the same courses following conventional methodology, in the control group. Most of the participants were enrolled in degrees or master's programs in Social and Legal Sciences (59.9%), followed by those in Health Sciences (25.5%). 17.8% had previously participated in a university-promoted project involving community service, and 17.5% claimed to have been involved in the past year with a youth organization or voluntary action entity. Mostly (69.1%), they had no prior work experience. Two instruments were administered during the academic years 2020/2021, 2021/2022, and 2022/2023. The first is a Record Sheet for University Service-Learning Courses, directed at the responsible professors to gather information about project characteristics. For this study, we considered information related to: - Type of service. It refers to the nature of the relationship established between the university and the community: direct (involving direct interaction with professionals and/or users of the entity/organization) or indirect (no direct contact with professionals and users). - Project quality scale, utilizing a 5-point Likert scale factor related to the level of social entity’s participation (only for projects with direct service). It pertains to the involvement of entities in defining objectives, planning, and student supervision. It is coded as low quality if the score is less than or equal to 3.33 and high quality if it exceeds this value (a cutoff point was determined based on the median of the factor in 108 service-learning projects). The second instrument is the Questionnaire on Generic Competences for University Students (COMGAU), administered in pretest and post-test. For analysis, a 5-point Likert scale measuring the perception of transversal competences was considered, grouped into five factors: entrepreneurial skills, interpersonal skills, intercultural skills, networking skills, and analytical and synthesis skills. Statistical analysis was conducted using Student's t-tests for related samples, distinguishing between different groups, and calculating effect size using the Cohen's d coefficient. Conclusions, Expected Outcomes or Findings Firstly, it is noteworthy that students participating in service-learning courses (experimental group) experience greater competence development compared to those who do not participate in such projects (control group). Moreover, within the experimental group, those engaging in direct service exhibit a larger effect size in the evolution of their perception. Specifically, in these direct-service projects, students significantly enhance their perception of entrepreneurial skills (p<.001), interpersonal skills (p<.001), and analytical and synthesis skills (p<.001). On the other hand, students in projects with indirect service report gains in entrepreneurial skills (p<.047), networking skills (<.039), and analytical and synthesis skills (p<.014). Meanwhile, the control group only increases their perception in analytical and synthesis skills (p<.008). Secondly, in the group involved in direct-service activities, those engaged in high-quality projects in terms of entity involvement experienced an increase in entrepreneurial skills (p<.001), interpersonal skills (p<.001), and intercultural skills (p=.016). This significance was not found in projects placing less emphasis on this dimension. In the analytical and synthesis skills and networking skills, there is significance in both groups, but with a larger effect size in the case of high participation. In conclusion, this study confirms the role of communities in the training of university students, specifically manifested in service-learning courses. This opens up new educational possibilities that enhance the meaningfulness of learning, as social entities and collectives become contexts of experience and practice closely aligned with the future professional endeavours of students, thus promoting the development of transversal competencies. References Asghar, M., and Rowe, N. (2017). Reciprocity and critical reflection as the key to social justice in service learning: A case study. Innovations in Education and Teaching International, 54(2), 117-125. https://doi.org/10.1080/14703297.2016.1273788 Baker-Boosamra, M. (2006). From service to solidarity: evaluation and recommendations for international service learning. SPNA Review, 2(1), 1-21. Bringle, R. G., and Hatcher, J. A. (1995). A service-learning curriculum for faculty. Michigan Journal of Community Service Learning, 2(1), 112-122. Coelho, M., and Menezes, I. (2021) University Social Responsibility, Service Learning, and Students' Personal, Professional, and Civic Education. Frontiers in Psychology, 12(617300). https://doi.org/10.3389/fpsyg.2021.617300 Jacoby, B. (2015). Service-learning essentials. Jossey-Bass. Martínez-Usarralde, M.J., and Chiva-Bartoll, O. (2020). Inclusivity and social justice through service-learning in the era of biopolitics. In UNESCO (Ed.), Humanistic futures of learning. Perspectives from UNESCO Chairs and UNITWIN Networks (pp. 117-121). UNESCO. Nduna, N. (2007). The community voice on service-learning: A good practice guide for higher education. Education as Change, 11(3), 69-78. https://doi.org/10.1080/16823200709487180 Rodríguez-Izquierdo, R.M., and Lorenzo, M. (2023). El giro comunitario en el aprendizaje-servicio Universitario. Inclusión y sostenibilidad. Octaedro. Santos Rego, M.A., Lorenzo, M., and Mella, I. (2020). El aprendizaje-servicio y la educación universitaria. Hacer personas competentes. Octaedro. Santos Rego, M.A., Mella, I., Naval, C., and Vázquez, V. (2021). The evaluation of social and profesional life competences of university students through service-learning. Frontiers in Education, 6(606304). https://doi.org/10.3389/feduc.2021.606304 Schmidt, A., and Robby, M. (2002). What’s the value of service-learning to the community? Michigan Journal of Community Service Learning, 9(1), 27-33. Van Rensburg, E., van der Merwe, T., and Erasmus, M. (2019). Community outcomes of occupational therapy service-learning engagements: perceptions of community representatives. South African Journal of Occupational Therapy, 49(1), 12-18. https://doi.org/10.17159/2310-3833/2019/vol49n1a3 |
15:45 - 17:15 | 22 SES 07 A: Digital challenges in HE Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Magdalena Fellner Paper Session |
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22. Research in Higher Education
Paper The Webinar: A Critical Reimagining University of Dundee, United Kingdom Presenting Author:Online learning is often discussed in relation to what happens on the screen of the computer, tablet, or phone, which students are accessing the learning through. This can be seen to reflect ‘Cartesian approaches that separate mind from body’ (Dourish, 2001: 189), reflective of wider education discourses in the western world. The reality is that online learning is happening in a physical place and experienced bodily as well as cognitively, our eyes get tired from computer screens and our backs sore from spending too long sitting. In this critical re-imagining we draw on research which understands learning to be a socially, culturally, and physically, situated practice. We focus on the webinar, a synchronous online teaching activity, in which geographically distributed groups of lecturers and students participate in learning activities together. We teach on an international Master of Education programme, working with diverse groups of students, and have become increasingly aware of the different physical, social, and cultural locations in which they are situated. We take the pedagogic stance that webinars should provide opportunities for collaborative learning and use two conceptual lens’ to critically examine how this can be facilitated. We use two conceptual lens’ to examine educational practice in webinars: Mediation and Embodied Cognition. A sociocultural understanding of mediation (Wertsch, 2007) allows us to consider the ways in which digital technology enables and constrains the learning experience. For international students’ digital technology enables connection to the university and to the module content, to the lecturer and to other students. The concept of mediation enables us to examine the way digital technology frames and constrains this learning experience. Embodied cognition (Johnson, 2013, Shapiro, 2014) deepens this examination by allowing us to ‘see’ the student as an embodied individual, experiencing education from a specific place. This enables us to explore further than the boundaries of the digital technology and critically consider the physical and cultural spaces which students inhabit as they engage with online learning. When teaching live sessions on international modules different time zones, geographic areas and cultural expectations are juxtaposed. Some students may have stayed up late, while others have got up early. Students in the same webinar may be experiencing extremes of weather or very different cultural environments. It is this juxtaposition that provides the potential for rich learning in webinars but too often not all students fully participate, or even attend. Drawing on both mediation and embodied cognition we consider the experience of the webinar and then highlight the implications of this conceptual framing for practice. The conceptual analysis we present is grounded in empirical data, collected during an action research style scoping study which tracked the development of a pedagogic intervention. Physical artefacts were introduced to webinar tasks as a means to value the knowledge structures of the students, enable collaborative practice and support the embodied experience of learning. Our reflections imply that the use of artefacts creates sensorimotor experiences which can support learning. In recognising that cognition is embodied, providing sensorimotor opportunities becomes a necessity in supporting individual learners but more than this, by sharing these activities within a group, there is further potential for broader and deeper thinking through the provision of space to ‘offload’. Offloading supports confidence and the creation of new understandings. Where students are able to sense each others’ sensorimotor activity during the use and production of artefacts, motor equivalence and ‘mirroring’ are enabled, generating empathy amongst the group and allowing students to reflect on and add to their own experiences. This suggests that consideration of the embodied experience of the student is pertinent when reflecting on the development of online pedagogy. Methodology, Methods, Research Instruments or Sources Used This is a conceptual study which draws on our own practice as lecturers on an International Master of Education programme. Drawing on the concepts of mediation (Wertsch, 2007, Vygotsky, 1987) and embodied cognition (Johnson, 2013, Shapiro, 2014) a pedagogical intervention was designed and delivered in the style of a small action research study. The module is part of an international MEd in Education which attracts students from around the world, with a variety of educational experience; professionally and culturally. Most of our students work in education in professional roles as teachers, school leaders or work-based educators. They are studying at master’s level in the Social Sciences. In the cohort on which we carried out this study we had a group of 10 students who regularly attended live webinars; these students were all experienced professionals working in a range of school settings and based in either Scotland or African countries. The module cohort was made up of 26 students, the other students watched the recorded webinars and completed the activities asynchronously. The small attendance at webinars was one of the factors which stimulated our interest in the webinar element of the module. Some students were unable to attend due to being in different time zones and some worked through the module at a different pace, taking advantage of the affordance of flexibility that online learning provides. This did not account for all students though and so we grew increasingly interested in understanding the value of the webinar element. Before proceeding with the study, we gained consent from our university ethics committee. Information was shared with students before the webinars in which data was generated. Students were given the option to have their data removed before we analysed the webinar recordings but none of the participants who attended the live sessions took this option. The intervention focused on three, out of eight, webinars which were delivered as part of a module entitled ‘Innovation in Education’. It was developed in the style of action study with three distinct research cycles. Reflections on each webinar informed the development of the next. Initial development of the intervention was informed by the conceptual framing of our analysis. All three webinars were developed to recognise the mediating role of digital technology and to acknowledge students’ embodied cognition, using physical artefacts to enhance digital engagement. Conclusions, Expected Outcomes or Findings We speculate that engaging with both mediation and embodied cognition is important in understanding the experience of students as they engage with learning in webinars. Theory can be an effective tool to inform digital design and the implications of the argument presented draw attention to questions of inclusivity and internationalisation. By considering mediation and embodiment we reimagine online practice, particularly in relation to intercultural groups but also in general. The reflections on mediation highlight how technology is not neutral but reflects social and cultural practices (Baroud and Dharamski, 2020), if we are to develop effective online collaborative learning we need to consider the embodied nature of practice and engage with the diversity of international cultures. Inclusivity may include consideration of knowledge structures and power relations, and to create inclusive learning environments we may need to find new ways to value diversity. The production of physical artefacts may provide a way to do this. Acknowledging the embodied nature of learning allows us to create authentic learning spaces where the creation of artefacts provides a means to create emergence. Consideration of the lecturer and student as embodied individuals, whose participation in and with the world is mediated by tools and signs, is pertinent if education is to provide hope for the future. References Baroud, J. and Dharamshi, P., (2020), “A collaborative self-study of critical digital pedagogies in teacher education”, Studying Teacher Education, 16(2), pp.164-182. Dourish (2001), ‘Where the Action Is: The Foundations of Embodied Interaction’ MIT Press, London: England. Johnson, M. (1987), The body in the mind: The bodily basis of meaning, imagination, and reason. University of Chicago Press Shapiro, L. (Ed.) (2014), The Routledge Handbook of Embodied Cognition. Routledge. Wertsch, J. (2007), “Mediation” in The Cambridge Companion to Vygotsky ed. Daniels, Cole and Wertsch, Cambridge University Press: Cambridge Vygotsky (1987) ‘Thinking and Speech’ from ‘The Collected Works of L.S. 22. Research in Higher Education
Paper Students Digital Well-being in terms of Distance Learning Moscow City University, Russian Federation Presenting Author:The pandemic 2020 drew a “waterline” between two concepts — “Emergency Remote Teaching” (ERT) and “High-Quality (Effective) Online Learning” (Hodges et al., 2020). ERT is considered to be “the temporary transition of learning to an alternative mode of content delivery due to crisis circumstances”. In 2021 Melissa Bond, Svenja Bedenlier et al. captured significant attention worldwide in the review that collected and synthesised the findings of 282 primary empirical studies conducted by 1019 authors from 73 countries during the initial 10 months of the pandemic. The compelling results of their research highlighted crucial insights that resonated across the globe. One of the negative consequences of ERT was the problem of psychological distress. Therefore, the Yandex conducted a large-scale all-Russian study in 2020, specifically examining the emotional burnout experienced by school teachers. The findings revealed that 75% of participants displayed evident symptoms of burnout, with 38% of teachers being in the acute phase. The “Hybrid” training format has also made its adjustments to the problem and has become widespread along with such training formats as “Face-to-Face” and “Remote/Virtual” but more than 90% of teachers recognise a digital disadvantage associated with the “Hybrid” format that makes a teaching-learning process more time-consuming. On the other hand, several studies indicate a shift away from the traditional classroom format in the educational process. This trend signifies a decline in the dominant position that the classroom format has held for centuries. In 2022, A.A. Margolis et al. showed that among the students of the Moscow State University of Psyсhology and Education (N = 761), only 10.8% of them preferred the full-time (classroom) study format. The distance learning format ranked first, with 49.5% of participants selecting it, while the mixed format claimed the second position with a preference of 39.7%. The research project led by E.I. Kazakova and I.E. Kondrakova involved students from 30 Russian universities (N = 4558) representing 23 regions of Russia revealed that students perceive distance learning as a means to fulfill their need for personal subjectivity and to take the initiative in educational activities. Meanwhile, a study conducted by A.V. Filkina et al. on Russian universities students (N = 25400 students, 2021) using the “Patient Health Questionnaire (PHQ-8)” method revealed blended learning is linked to a higher likelihood of experiencing signs of psychological distress among students. According to the researchers, the analysis of the relationship between the learning format and the occurrence of psychological distress symptoms shows ambiguous results that students who exclusively study in a distance-learning format present the lowest levels of psychological distress. Full-time education slightly increases the likelihood of experiencing distress symptoms. At the same time, most often signs of psychological distress are observed in students studying in a mixed format, when some classes are held full-time, some remotely. However, the experiences gained during the pandemic and post-pandemic periods indicate that the alternative to ERT in the form of High-Quality Online Learning has the potential to yield excellent educational outcomes and is linked to psychological well-being. An experiment conducted on younger schoolchildren demonstrated that remote synchronous classes aimed at fostering creativity are equally effective, if not superior, to traditional classroom sessions, debunking existing social stereotypes. The experimental group exhibited slightly higher creativity scores compared to the control groups (L.E. Jalalova, R.V. Komarov). Similar positive educational outcomes have been achieved across various levels of education, including distance Master's degree programmes, advanced training courses, and professional retraining programmes. Therefore, the question of utmost importance in the post-pandemic period is what conditions guarantee the success of remote teaching (including digital formats) and promote the students digital well-being. Methodology, Methods, Research Instruments or Sources Used Building upon the systemic methodology, we identify three approaches to remote teaching: projective (substitutional), combinatorial (compilative), ecosystem. The projective approach entails a classroom methods direct transfer, techniques, models into the digital space, as the “transfer method” by Gonzalez-Urquijo et al. (2021). The combinatorial approach entails the simultaneous use of various digital tools, with the selection of tool combinations for educational tasks determined by both the nature of the tasks and the teacher's familiarity with the diverse array of digital tools available on the EdTech services market. The ecosystem approach highlights the importance of teachers and educational institutions adopting a unified and well-organised IT solution. It maintains a balance in the “open-closed” parameter, includes essential functionality for the educational process right from the start, catering to various tasks of different levels of difficulty, and offers a single entry point, allowing users to access all tools with just one account. Additionally, it ensures seamless integration of ecosystem tools with each other, while also providing the option for independent use or integration with third-party tools. It prioritises security, confidentiality, and data protection in interactions and operations and enables long-term, strategically planned collaboration with the team, rather than focusing solely on short-term outcomes. The third aspect involves a distinct differentiation between the concepts of “effectiveness” (“What have you achieved?”) and “efficiency” (“At what cost?”). The efficiency coefficient (E) can be calculated by the formula: E = R / C. “R” is a result (such as the number of tasks checked by the teacher), and “C” is the cost, which represents the amount of operations carried out to achieve the result. According to the research calculations, the effectiveness of the ecosystem approach in remote work is shown to be 3 to 30 times higher compared to the combinatorial approach. The magnitude of this increase depends on factors such as the subject content and complexity of educational tasks. Therefore, implementing the ecosystem approach has a direct impact on students' psychological well-being and influences hygienic, aesthetic, and other factors that contribute to their overall condition (due to reducing overload and tasks, as well as allowing more freedom for meaningful activities). Conclusions, Expected Outcomes or Findings The digital well-being of both students and teachers is a system-forming function of the teachers’ success in a distant educational process. As the authors have consistently demonstrated, effectiveness rarely guarantee effectiveness in practice. The differentiation between effectiveness and efficiency compels us to approach success in terms of the methodological principle of determinism, which states that external causes manifest through internal conditions (S.L. Rubinstein). These internal conditions encompass various factors, such as referring to an appropriate IT solution (the use of MS Teams or Google Classroom) within an ecosystem approach, choosing the way of remote working (combinatorial or ecosystem), and the level of digital competency. The motivation for successful distance learning has been formulated by C. Hodges et al. (2020). They define “High-quality (Effective) Online Learning” as an approach that aims to cultivate an educational community and offer students support not only in their academic pursuits but also through collaborative educational activities and various forms of social support. The creation of a learning community is a crucial semantic factor in ensuring the success of remote work. When aiming to foster the digital well-being of students, teachers face the responsible task of not only enhancing their digital competencies but also carefully selecting an approach that aligns with the teaching objectives of the system. References Hodges, C., Moore, S., Lockee, B., Trust, T., & Bond, A. (2020). The Difference Between Emergency Remote Teaching and Online Learning. EDUCAUSE Review, 27. https://er.educause.edu/articles/2020/3/the-difference-between-emergency-remote-teaching-and-online-learning Bond, M., Bedenlier, S., Marín, V.I. et al. Emergency remote teaching in higher education: mapping the first global online semester. Int J Educ Technol High Educ 18, 50 (2021). https://doi.org/10.1186/s41239-021-00282-x Komarov, R. V. Effectiveness vs efficiency: forks of success in remote work / R. V. Komarov // Methodical online games to help a teacher: author's developments of undergraduates of the programme "Personal potential development: personalisation and digitalization of education" : An educational and methodological guide / Under the general editorship of R.V. Komarova, O.M. Zvereva, N.D. Vyun. – Moscow : Pero Publishing House, 2023. – pp. 9-34. – EDN ZWLFVD. Komarov, R. V. The work of a teacher at a distance: approaches to the use of digital tools / R. V. Komarov // Bulletin of the Moscow State Pedagogical University. Series: Pedagogy and Psychology. – 2021. – № 3(57). – Pp. 56-78. – DOI 10.25688/2076-9121.2021.57.3.03. – EDN ROAILO. Falloon, G. From digital literacy to digital competence: the teacher digital competency (TDC) framework. Education Tech Research Dev 68, 2449–2472 (2020). https://doi.org/10.1007/s11423-020-09767-4 Gonzalez-Urquijo, M., Gonzalez-Hinojosa, D. E., Rojas-Mendez, J. et al. Transferring face-to-face sessions to virtual sessions in surgical education: a survey-based assessment of a single academic general surgery programme. Eur Surg 53, 55–59 (2021). https://doi.org/10.1007/s10353-021-00691-2 Butrime E. (2021) Virtual Learning Environments and Learning Change in Modern Higher Education During the Covid-19 Coronavirus Pandemic: Attitudes of University Teachers. In: Rocha Á., Adeli H., Dzemyda G., Moreira F., Ramalho Correia A.M. (eds) Trends and Applications in Information Systems and Technologies. WorldCIST 2021. Advances in Intelligent Systems and Computing, vol 1367. Springer, Cham. https://doi.org/10.1007/978-3-030-72660-7_22 Learning and Collaboration Technologies (2020). Human and Technology Ecosystems. 7th International Conference, LCT 2020, Held as Part of the 22nd HCI International Conference, HCII 2020, Copenhagen, Denmark, July 19–24, 2020, Proceedings, Part II. Editors: Panayiotis Zaphiris, Andri Ioannou. Springer, Cham. Springer Nature Switzerland AG 2020. https://doi.org/10.1007/978-3-030-50506-6 22. Research in Higher Education
Paper A university-wide analysis of the Activating Blended Education Vrije Universiteit Amsterdam, Netherlands, The Presenting Author:In Activating Blended Education (ABE), online and in person education are combined (Bowyer & Chambers, 2017) and students have to actively learn through exercises and meetings that are activating in nature, such as tutorials and discussions. ABE has increasingly been applied in higher education since the early 2000s in Europe and the United States (Güzer & Caner, 2014) and increasingly in the rest of the world (Anthony et al, 2020). After the Covid-19 pandemic, it has even been described as a new normal (Cobo-Rendón et al., 2022; Singh et al., 2021). Multiple meta-analyses have found that ABE leads to better academic results than education that takes place entirely on campus or online (Bernard et al., 2014; Castro, 2019; Vho et al., 2017). Online contents gives students greater flexibility and the opportunity to learn at their own pace (Boelens et al,. 2018) and activating educational methods force students to cognitively engage with teaching materials long before a final exam. ABE can implemented in different ways. An instructor could for example choose for a flipped classroom setting in which instruction takes place via prerecorded lectures and meetings on location are used for clarification and discussion. It is also possible to make a course blended by adding online modules to a courses. ABE has been extensively studied but most research has focused on detailed analysis of single courses and curricula (Anthony et al., 2022) often given by proponents of ABE. Research into institutional adoption of ABE is rare and often relies on interviews with higher management rather than a measurement of the actual instruction offered in higher education (Graham et al., 2022) As the adoption of ABE becomes more widespread, it becomes necessary to study how ABE is adopted institutionally and measure whether and how ABE is implemented through analysis of the actual education offered to the students. The Vrije Universiteit Amsterdam (VU) adopted ABE as one of the design principles for its education in 2021. It is yet unclear whether the university truly achieved a greater level of blended and activating education and to ascertain whether this is the case, a mixed method research project has been started. For this study, a stratified sample was taken of Bachelor courses for which the content was analysed through the schedule and online learning environment. Interviews were conducted with course coordinators on the rationale for their course design. We aim to answer the following research questions. 1) how can we efficiently and validly ascertain whether a course is blended and activating? 2) How is ABE designed? 3) Is there a shift towards more ABE in the period 2019-2024? With a newly developed measuring instrument, over 150 courses were successfully analysed. The analysed courses were to a great degree activating but to a far smaller degree blended. Apart from a small minority of 10% of the sample, all courses had numerous assignments and meetings that are activating in nature. The courses that were blended were so because of a greater focus on online videos and modules rather than online meetings. In 2019-2020, all instruction took place on campus and during the Covid-19 pandemic all instruction moved online. After the pandemic, in 2022-2023, only a small number of courses had retained online activities. Online meetings were generally limited to one per course and do no constitute a significant part of the instruction. There was also an increase in online videos, quizzes and exercises. In interviews, teachers were generally positive about ABE but at the same time strongly preferred to have in person meetings. Methodology, Methods, Research Instruments or Sources Used A measuring instrument was developed for analysis of the online learning environments of courses. Due to the great variety in how the online learning environment is used by different instructors, this analysis could not be automated and could only be done in person. The instrument was used to determine for each meeting whether it takes place online or not and whether it is activating in nature. Lectures and film showings were counted as not activating in nature. Most other meetings such as tutorials, lab practicals, debates and presentation sessions were counted as activating in nature. Prerecorded lectures were counted separately from lectures that were held online live at a specific point in time. In addition, the number of assignments and type of assignments (exercises, reports, presentations etc) were counted. We also included a measurement of all types of digital tools that were used, such as online quizzes, the use of an online forum and the use of e-books and e-modules. We took a stratified sample for each bachelor education. For each bachelor program (45 in total), a course was picked randomly for each of the three years that the program lasted. All course coordinators were approached and gave permission for analysis of the Measurements took place for 2019-2020, 2022-2023 and 2023-2024 and were done by two raters. In the cases in which the two raters disagreed in their rating of a course, a researcher also rated the course and came to a final rating. The course coordinators of the sampled courses were approached for a semi-structured interview and 29 of them agreed and were interviewed. In these interviews, the coordinators were asked about their view of education, in particular regarding activating and online education, and the rationale behind the design of their course. Special attention was paid to how the course has changed over the years and whether any changes will be made to the course in coming years. Interviews were conducted once the quantitative analysis of the course had been concluded. During the interview, the coordinators were shown the results of this analyses and were asked to comment on it. All interviews were recorded and transcribed verbatim and coded inductively. Conclusions, Expected Outcomes or Findings Currently, over two thirds of sampled courses have been analysed and almost all interviews have been conducted and transcribed and are in the process of being coded. We intend to complete the analysis in the coming months. From the analysis done so far, it can be concluded that the sampled courses are to a great degree activating but to a far smaller degree blended. The courses that were blended were so due to inclusion of online material rather than online meetings. Almost all courses made use of activating meetings and included multiple assignments. A minority of 10% of the courses could be classified as passive in nature. In 2019-2020, all instruction took place on campus (and during the Covid-19 pandemic, all instruction was online). In 2022-2023, a small shift towards online education had taken place. Around 20% of courses had online meetings, though often only one or two. There was a modest increase in use of videoclips and online modules. When shown the analysis, coordinators agreed with the findings. In interviews, course coordinators were generally positive towards online education and saw the value of online modules and instructional videoclips. However, they preferred in person meetings for personal interaction and group formation. Coordinators often erroneously thought it was university policy to hold meetings on campus. An important finding is that the developed instrument can be used to make valid and reliable statements about the degree to which a course is activating and blended. It can also create a valid evaluation of the institutional state of ABE. It turns out that the view that university-level education would primarily consist of lectures is outdated. Finally, it can be concluded that the shift towards online education during the pandemic was temporary due to a focus on in person instruction and student wellbeing. References Anthony, B., Kamaludin, A., Romli, A., Raffei, A. F. M., Phon, D. N. A., Abdullah, A., & Ming, G. L. (2020). Blended learning adoption and implementation in higher education: A theoretical and systematic review. Technology, Knowledge and Learning, 1-48. Bernard, R. M., Borokhovski, E., Schmid, R. F., Tamim, R. M., & Abrami, P. C. (2014). A meta-analysis of blended learning and technology use in higher education: From the general to the applied. Journal of Computing in Higher Education, 26(1), 87-122. Boelens, R., Voet, M., & De Wever, B. (2018). The design of blended learning in response to student diversity in higher education: Instructors’ views and use of differentiated instruction in blended learning. Computers & Education, 120, 197-212. Bowyer, J., & Chambers, L. (2017). Evaluating blended learning: Bringing the elements together. Research Matters: A Cambridge Assessment Publication, 23(1), 17-26. Castro, R. (2019). Blended learning in higher education: Trends and capabilities. Education and Information Technologies, 24(4), 2523-2546. Cobo-Rendón, R., Bruna Jofre, C., Lobos, K., Cisternas San Martin, N., & Guzman, E. (2022, July). Return to university classrooms with Blended Learning: a possible post-pandemic COVID-19 scenario. In Frontiers in Education (Vol. 7). Frontiers Media SA. Graham, C. R., Woodfield, W., & Harrison, J. B. (2013). A framework for institutional adoption and implementation of blended learning in higher education. The internet and higher education, 18, 4-14. Güzer, B., & Caner, H. (2014). The past, present and future of blended learning: an in depth analysis of literature. Procedia-social and behavioral sciences, 116, 4596-4603. Singh, J., Steele, K., & Singh, L. (2021). Combining the best of online and face-to-face learning: Hybrid and blended learning approach for COVID-19, post vaccine, & post-pandemic world. Journal of Educational Technology Systems, 50(2), 140-171. Vo, H. M., Zhu, C., & Diep, N. A. (2017). The effect of blended learning on student performance at course-level in higher education: A meta-analysis. Studies in Educational Evaluation, 53, 17-28. Vrije Universiteit Amsterdam (2021) Onderwijsvisie Vrije Universiteit. Accessed on the 16th of January 2024, https://vu.nl/nl/medewerker/onderwijsbeleid/onderwijsvisie 22. Research in Higher Education
Paper The Digital Public Sphere, Universities and Public Intellectualism 1University of Glasgow, United Kingdom; 2Durham University, United Kingdom Presenting Author:The digital public sphere, comprised of a wide variety of message boards, information outlets, discussion fora and news channels, all enabled via social media and the world wide web, has on paper at least enormous potential to encourage the development of what Habermas referred to as a ‘critical reasoning public’ (1989). This is a public that, just as in the heyday of the 18th public sphere, held nation states to account and spoke truth to power – the public sphere effectively acting as a check on undemocratic practices. The reality, based on recent evidence, is that the public sphere of the 21st century has squandered this potential, with critical reasoning in short supply and struggling to make itself felt in a world of celebrity gossip and antagonistic behaviour. Online dialogue is a world away from a digital republic of letters and the genesis of a new age of enlightenment. Much of the blame for this of course rests squarely on some of the usual suspects, the rent-seeking behaviour of modern capitalism chief among them. But blame should also lie at the feet of educational institutions, especially universities whose stated aims include the development of critical reasoning and the search for enlightenment. Their lack of presence in the digital public sphere is a striking feature of modern intellectual life. This is a serious oversight given what is at stake: overcoming the distortions of the digital public sphere, the misinformation, profiteering, commodification, as well as the widespread epistemic injustices and flagrant anti-democratic practices, depends, as Sevignani puts it (2022: 93) ‘on democratic learning processes in publics that foster the flourishing of communicative competences’. Of all the public institutions, universities are uniquely placed to help facilitate these ‘democratic learning spaces’ but have ceded this territory in the informal world of digital communication and opinion formation. Why such a disconnect between the universities and the public? Given the make-up of the digital public sphere, there are technological and spatial elements at play in this disconnect as well as the commodifying issues mentioned above. While these issues are significant, this paper aims instead to examine a more fundamental concern which is the relation between the universities and the public. Specifically, the paper will explore the extent to which universities engage with the process of intellectualising the public, or public intellectualism. In order to do this, the paper will first of all: provide some historical context for this relation and detail how this relation has been impacted by social transformations; second, identify the mechanisms of public intellectualism (for example, evidential, communicative, pedagogical) and their institutional embeddedness, and third, critically examine the content of public intellectualism – for example, welfare and economic redistribution, justice, knowledge and power, the public good, democracy, voice and representation. The paper concludes by detailing some implications of this for the future of critical reasoning in the digital public sphere. Methodology, Methods, Research Instruments or Sources Used The paper adopts a historical and theoretical approach to the topic of the digital public sphere, with an obvious starting point being the work of Habermas. Habermas’ classic text The structural transformation of the public sphere (1989[1962]) provided an account for the rise of a critical reasoning public in countries such as England in the eighteenth century. Habermas traced the development of this sphere from its original role as a mouthpiece for the state to its transformation into a public debating chamber set against the interests of states. Greek in origin, conceptions of the ‘public’ and the ‘private’ and of the public sphere received a new lease of life with the growth of the modern state and of civil society alongside it. As a mediator between society and the state, the public sphere for Habermas is a crucial element of a properly functioning democracy, offering a privileged space for the ‘people’s public use of their reason’ (offentliches Rasonnement) (1989: 27). The publication, in English in 1989, has since spawned a wide range of intellectual debates across the social sciences and humanities, its influence at its heaviest in fields such as sociology, communication and media studies, linguistics, political science and literary studies. Its presence in education debates, however, is markedly less so, which is an oversight given Habermas’ own emphasis (albeit indirectly) on learning spaces and processes as tools of communicative deliberation and political transformation. A cursory appreciation of the topic would suggest that the public sphere is fertile ground for a study of educational questions, especially as regards the public framing of these questions, the politics of educational knowledge and the role of social movements in influencing educational outcomes. This paper aims to grapple with these concerns and to critical examine in particular the relation between universities and the now digitally-oriented public sphere, especially as it manifests itself in the 21st century. The historical focus is significant: this century has seen a ‘virtual transformation’ of the public sphere via the proliferation of social media, while also witnessing a questioning of expert knowledge cultures and a growing suspicion of educational authority. Educational professionals and institutions now more than ever have to compete against other sources of knowledge formation and production, making the development of a critical reasoning public an even more challenging proposition. Conclusions, Expected Outcomes or Findings Expected outcomes relate to two key elements of the paper: 1) exploring the mechanisms of public intellectualism. The paper will include detail and analysis of how institutions engage the public through evidence-based arguments and discursive practices alongside various educational strategies and forms of public pedagogy; 2) The second expected set of outcomes revolve around critically examining the content of public intellectualism, and this may include an analysis of how institutions (through their research centres, foundations, outreach programmes) engage the public in dialogue around pressing social issues such as welfare, care and economic redistribution, migration and citizenship, struggles over social justice and equality, identity and representation, notions of the ‘public good’, and wider concerns over the future of democratic states. The paper concludes by detailing some implications of these findings for the future of critical reasoning in the digital public sphere, which will include reconsiderations of existing institutional policy, strategies of impact and knowledge exchange as well as the role of academics and students in reshaping the public sphere for the 21st century. References Feinstein, N. (2015). Education, Communication, and Science in the Public Sphere. Journal of research in science teaching, 52:2, 145- 163. Giroux, H. (2010). Bare Pedagogy and the Scourge of Neoliberalism: Rethinking Higher Education as a Democratic Public Sphere. The Educational Forum, 74:3, 184-196. Gomes, L. (2015). Digital Culture, Education and Public Sphere. IXTLI - Revista Latinoamericana de Filosofía de la Educación, 2: 3, 129-145. Habermas, J. (1989[1962]). The Structural Transformation of the Public Sphere. Cambridge: MIT Press. Holmwood, J. (2017). The University, Democracy and the Public Sphere. British Journal of Sociology of Education, 38:7, 927-942. Martin, C. (2015) Nudging the Public Sphere: A Habermasian Perspective on Public Deliberation as an Aim of Moral Education. Journal of Moral Education, 44:4, 440-456. Pappas, L. N. (2016). Is Deliberation a Laudable Goal When Policy is a Done Deal? The Habermasian Public Sphere and Legitimacy in a Market Era of Education Policymaking. Education Policy Analysis Archives, 24: 121, 1-24. Sevignani, S. (2022). Digital Transformations and the Ideological Formation of the Public Sphere: Hegemonic, Populist, or Popular Communication? Theory, Culture & Society, 39:4, 91–109. Trenz, H-J. (2023). Democracy in the Digital Public Sphere: Disruptive or Self-corrective?, Communication Theory, 33: 2-3, 143–152. Ueno, M. (2015). Democratic Education and the Public Sphere: Towards John Dewey’s theory of aesthetic experience. New York: Routledge. |
17:30 - 19:00 | 22 SES 08 A: Teaching and Learning Science and Mathematics Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Julien-Pooya Weihs Paper Session |
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22. Research in Higher Education
Paper Reflection on Using Flipped Classroom in Teaching Mathematics and Statistics to Engineering Students 1Lancaster University, United Kingdom; 2University West, Sweden Presenting Author:This study presents a critical reflection on the use of the flipped classroom (FC) method in teaching mathematics and statistics to engineers, focusing on evaluating various aspects of student engagement. We based our analysis on the approach implemented by Lo and Hew [1] in their literature review on student engagement in mathematics flipped classrooms. This conceptual framework is rooted in the multifaceted nature of engagement, including behavioural, emotional, and cognitive aspects [2]. We applied this framework to two different FC formats. The first format follows a traditional approach, where students are provided access to the learning material in advance. The students go through it independently and then participate in learning activities offered in class. This traditional approach has been widely used and evaluated, presenting its own benefits and challenges. The second format is a modernised version of the traditional setting. In line with the traditional approach, students go through the learning material themselves; however, the lecturer summarises a topic in a weekly lecture and goes through examples presented in pre-recorded lectures on the board. While the FC approach might be considered a well-known method [e.g., 3], it has not been widely used in teaching mathematics until recently. The available analysis of the effectiveness of this method in relation to student engagement doesn’t show consistent results [e.g., 1, 4]. What affects students engagement? What new ideas in implementing FC would be worth developing further? During the Covid-19 pandemic, the higher education sector had to radically change the ways the majority of courses were taught to accommodate new realities. The vast number of courses went online creating favourable conditions for implementing and advancing the FC teaching method in a variety of subject disciplines, including mathematics-based courses. Grounded in constructivist learning theories [e.g., 5,6], the FC represents one of the student-centred instructional models. In the FC environment, students are the builders of their knowledge. Initially, students familiarise themselves with new material outside the classroom and then build upon this foundation through adaptation and application of knowledge in in-class discussions, problem-based and project-based learning, and peer learning. The objectives of this critical reflection are as follows:
Methodology, Methods, Research Instruments or Sources Used This paper presents the outcomes of the on-going collaboration between Lancaster University, UK, and University West, Sweden, focusing on the implementation of non-traditional teaching methods in mathematics and statistics [7-10]. It evaluates the outcomes of using the FC approach in two courses at University West, Sweden, during the first semester of the 2023-24 academic year. The first course, ‘Statistics,’ was offered to second-year electrical engineering students, employing the traditional FC setting. Meanwhile, the second course, ‘Algebra and Trigonometry,’ targeted first-year engineering students. A total of 42 students enrolled in the ‘Statistics’ course, while 190 students were enrolled in the ‘Algebra and Trigonometry’ course. In both cases, the students were provided with new material on a weekly basis to independently prepare for the upcoming seminars. Seminars were conducted twice per week, spanning two hours each session, over an eight-week period. First-year students were divided into four seminar groups. To evaluate student engagement, participants were required to complete a questionnaire comprising three parts. Each section featured a set of Likert-type questions designed to assess behavioural, emotional, and cognitive engagement. The first set of questions delved into students’ participation, effort, and preparation for class activities. The second set aimed to gauge satisfaction with learning and motivation levels, while the final set focused on students' investment in learning, confidence development, and deeper understanding. Additionally, discussions were held with the two course convenors to gain insights into their experiences with the FC methodology. These discussions aimed to provide supplementary qualitative data to complement the quantitative findings from the questionnaires. Conclusions, Expected Outcomes or Findings In the study, 19 out of 42 students enrolled in the 'Statistics' module returned the questionnaire, highlighting strong engagement within the traditional setting. Students expressed significant learning through peer collaboration, effective communication with the lecturer, use of resources, and satisfaction with course organisation. Among 140 first-year students, 68 responses revealed less coherence. While 80% expressed emotional satisfaction with course delivery, 80% were uncertain about cognitive engagement with the FC method allowing pacing of their own learning. Additionally, 30% were unsure about ease of communication with the lecturer. Discussions with lecturers showed excellent student attendance. In 'statistics' course, the lecture used less group activities in class this time and focused more on going through solutions on the board. This was different from the previous year were the students were working in groups on solving problems. This might potentially affected student engagement and exam performance as the students were exposed more to passive learning. In the case of first-year students attending the summary lectures, lecture attendance was notably high, however, seminar attendance was comparatively low. Typically, students engage in problem-solving activities either individually or in groups during seminars, seeking guidance from tutors when needed. The lower seminar attendance suggests that students may have grasped the material well enough without collaboration with peers. Reflecting on these findings, repeating examples may enhance understanding and application of new concepts, while group work fosters active engagement, positively impacting exam performance. It's evident that using a variation of learning activities in class could positively impact different types of student engagement. The pandemic has accelerated changes in the way we teach our students. Transitioning to more flexible, mixed modes of teaching practices will provide opportunities to create a more engaging and motivating learning environment that reflects the rapidly changing world we live in. References 1.Lo, C.K. and Hew, K.F., 2021. Student engagement in mathematics flipped classrooms: Implications of journal publications from 2011 to 2020. Frontiers in Psychology, 12, p.672610. 2. Fredricks, J. A., Blumenfeld, P. C., and Paris, A. H. (2004). School engagement: potential of the concept, state of the evidence. Rev. Educ. Res. 74, 59–109. doi: 10.3102/00346543074001059 3.Akçayır, G. and Akçayır, M., 2018. The flipped classroom: A review of its advantages and challenges. Computers & Education, 126, pp.334-345. 4.Yang, Q.F., Lin, C.J. and Hwang, G.J., 2021. Research focuses and findings of flipping mathematics classes: a review of journal publications based on the technology-enhanced learning model. Interactive Learning Environments, 29(6), pp.905-938. 5.Felder, R.M., 2012. Engineering education: A tale of two paradigms. Shaking the foundations of Geo-Engineering education, pp.9-14. 6.Loyens, S.M., Rikers, R.M. and Schmidt, H.G., 2009. Students' conceptions of constructivist learning in different programme years and different learning environments. British Journal of Educational Psychology, 79(3), pp.501-514. 7.G. Nilsson and E. Luchinskaya, A Reflection on Using Two Models of Supplemental Instruction in Teaching Mathematics for Engineers. In Strømmen-Bakhtiar, A., Helde, R. and Susen, E., 2021. Supplemental Instruction: Volume 2: Student Learning Processes. Waxmann Verlag. 8.Nilsson G. and Luchinskaya E. “Developing Competences Using Problem-based Learning: a Case Study of Teaching Mathematics to Computer Science Students”, Journal of Research in Teacher Education, 2007, No 3. pp. 13-21. 9.Luchinskaya E, Nilsson G., Kristiansson L. “Increasing university students’ motivation to improve maths knowledge in a workshop environment”. ECER 2014, Porto, Portugal, 2014. 10.Luchinskaya, E., & Nilsson, G. (2009). Using problem-based and peer-assisted learning in teaching mathematics to university students: Focus on competence development [Paper presentation]. European Conference on Educational Research (ECER 2009), Vienna, Austria. 22. Research in Higher Education
Paper Study Profiles of First-year University Science and Mathematics Students: Who Are at Risk of Dropping Out? 1University of Turku, Finland; 2University of Tampere Presenting Author:Dropping out of studies is a large issue for the university, society, and often for the individual. While dropping out could be a positive issue for students who find a better-suited profession or study field, it admittedly also has negative effects, such as losing financial aid and time, and experiencing more unemployment and lower incomes than persisters (Davies & Elias, 2003; OECD, 2019). From an institutional perspective, universities’ funding is usually dependent on the number of graduates, so aside from the wasted resources, dropouts have a direct effect on universities’ funding. The drop-out issue is greatest in STEM fields, where the drop-out rates are the highest and where it is especially important to obtain more workforce to answer the needs of the quickly developing technology industry and to solve global issues such as climate change. Drop-out is a complex phenomenon where both an individual’s internal factors and external factors interact with each other, eventually leading to the decision to drop out. In Heublein’s model of drop-out, the internal factors include aspects such as study behavior and motivation, and external factors for example study conditions and guidance (Heublein, 2014). Heublein argues that for the study programme to be successful, these factors should align and alter respectively. Though plenty of empirical research has been done and theoretical models built, existing empirical evidence still has limitations. Previous research often approaches the issue from a variable-centered perspective, which may prevent the identification of the smaller at-risk subpopulations and understanding the complex interrelations behind drop-out. Existing research also lacks a multi-variable perspective which is vital in a multi-faceted process of dropout. As well, attention should be paid to differentiating between types of dropouts and gaining information from the context of different countries’ education systems. A better understanding of the phenomenon could help the work of reducing dropout rates. We approach this issue using a person-centered approach to examine the study profiles of first-year university students. We aim to identify distinct patterns of students’ study orientations across dimensions of motivation, learning approach, and experienced stress. In this study, we explore what type of study profiles can be identified from first-year science and mathematics students and whether the profile membership is related to first-year grade point average (GPA). The variables included are interest, self-efficacy, surface learning approach, and academic stress. (Korhonen, 2014; Korhonen & Rautopuro, 2019; Lastusaari, 2018; Widlund et al., 2023). All variables are related to students’ study processes and recognized as being connected to drop-out, and they are malleable variables that the universities have a chance to affect (Condren & Greenglass, 2011; Haarala-Muhonen et al., 2017; Heublein, 2014; Jesús et al., 2022; Kehm et al., 2020; Lastusaari et al., 2016; Parpala et al., 2010). Possible at-risk profiles are observed and discussed. Identifying plausible profiles helps institutions get a picture of the new students and their support, information, and teaching needs. Intervening with the risk elements at an early stage could prevent dropouts. It also adds important information on the large and yet unclear phenomenon of drop-out, especially from the perspective of the crucial STEM fields and the first study year, and from person-oriented and multi-variable perspectives, also including both self-reported and student register-based variables. Methodology, Methods, Research Instruments or Sources Used The data consisted of 177 first-year Finnish university science and mathematics students’ survey answers and grade point averages (GPAs), collected in spring 2023. The self-reported items, interest, self-efficacy, surface learning approach, and academic stress, were used to explore the study profiles, and GPA was used as a direct measure to validate the profile memberships. Interest and self-efficacy were measured with an instrument, originally designed to measure mathematical motivation (Widlund et al., 2023) as the expectancy-value theory’s beliefs and values (Eccles, 1983), and then developed to fit university science and mathematics students. Both interest (α=0.903) and self-efficacy (α=0.858) were measured with three questions, measuring students’ interest in their major and their beliefs about their abilities to perform in their studies. The surface learning approach was measured with a modified version of the ChemApproach -questionnaire (Lastusaari, 2018), originally designed to measure chemistry students’ four different learning approaches, now developed further, ending up with four questions measuring the surface learning approach (α=0.841). Academic stress was measured with an instrument developed in the Campus Conexus -project (Korhonen & Rautopuro, 2019). One question was removed to increase the internal consistency of the measurement, ending up with a four-question solution (α=0.839). All questions were answered on a Likert scale of 1 (Completely disagree) – 5 (Completely agree). Confirmatory factor analysis confirmed the structures of the constructs. All measures were formed by calculating the means of the questions. Latent profile analysis with a three-step method was conducted with the variables interest, self-efficacy, surface learning approach, and academic stress, and finally grade point average (GPA) as an auxiliary variable. First, the number of profiles was obtained by fitting latent profile models iteratively to the data, starting with two and continuing up to six profiles. The best-fitting model was identified by interpreting fit indices. The analysis was conducted four additional times to check robustness. Second, the students were assigned profiles based on the class membership probabilities. Finally, logistic regression analysis and ANOVA were conducted to observe the connection between the profile membership and GPA. Conclusions, Expected Outcomes or Findings The model with five different study profiles was identified as the best fit. The profiles were named respectively: “well-performing, interested” (55.8%), “lower-performing, interested” (19.8%), “high-performing, interested” (11.5%), “lower-performing, uninterested” (7.4%), and “well-performing, uninterested” (5.4%). The “well-performing, interested” and “high-performing, interested” profiles seemed to not have any major issues in their studies, as they had high interest, mediocre-to-high self-efficacy, low surface learning approach, mediocre-to-low stress, and mediocre-to-good GPAs (M=3.55, SD=0.92 and M=3.09, SD=0.70). The “lower-performing, interested” profile seemed to struggle with all aspects other than interest, having low self-efficacy, and high surface learning approach and stress, and a lower GPA than most of the profiles (M=2.92, SD=0.73), indicating that this profile would benefit from support offered by the university. The two smallest profiles came across as at-risk groups, as both “lower-performing, uninterested”, and “well-performing, uninterested” had low interest, indicating they are not interested in the field they are currently studying. In addition, the former had low self-efficacy, and high surface learning approach and stress, and the lowest GPA of the profiles (M=2.62, SD=0.75), indicating that also their learning habits would need some improvement. These students will most probably end up dropping out if not intervened by the university. The latter, however, didn’t seem to have other challenges than the low interest, as they had high self-efficacy, low surface approach, and high GPA (M=3.46, SD=0.50), indicating that these students may eventually transfer to another study field. The at-risk groups could benefit from the university actively communicating about possible specialization fields and professions, and positive environmental and societal impacts offered by the current study field, helping the students find the motivation towards the study field. References Condren, M., & Greenglass, E. R. (2011). OPTIMISM, EMOTIONAL SUPPORT, AND DEPRESSION AMONG FIRST-YEAR UNIVERSITY STUDENTS Implications For Psychological Functioning Within The Educational Setting [Book]. In G. Reevy & E. Frydenberg (Eds.), Personality, stress, and coping implications for education (p. 133). Information Age Pub. Davies, R., & Elias, P. (2003). Dropping Out: A Study of Early Leavers From Higher Education. Research Report RR386. Institute For Employment Research (IER). Eccles, J. (1983). Expectancies, values, and academic behaviors. In J. T. Spence (Ed.), Achievement and achievement motivation (pp. 75–146). W. H. Freeman. Haarala-Muhonen, A., Ruohoniemi, M., Parpala, A., Komulainen, E., & Lindblom-Ylänne, S. (2017). How do the different study profiles of first-year students predict their study success, study progress and the completion of degrees? Higher Education, 74, 949–962. https://doi.org/10.1007/s10734-016-0087-8 Heublein, U. (2014). Student Drop-out from German Higher Education Institutions. European Journal of Education, 49(4). https://doi.org/10.1111/ejed.12097 Jesús, E., Simón, L., & Gijón Puerta, J. (2022). Prediction of early dropout in higher education using the SCPQ. Cogent Psychology, 9. https://doi.org/10.1080/23311908.2022.2123588 Kehm, B. M., Larsen, M. R., & Sommersel, H. B. (2020). Student dropout from universities in Europe: A review of empirical literature. Hungarian Educational Research Journal, 9(2), 147–164. https://doi.org/10.1556/063.9.2019.1.18 Korhonen, V. (2014). Opintoihin kiinnittymisen arviointia kehittämässä - Nexus-itsearviointikyselyn teoreettista taustaa ja empiiristä kehittelyä: Vol. B:3. University of Tampere. Korhonen, V., & Rautopuro, J. (2019). Identifying problematic study progression and “at-risk” students in higher education in Finland. Scandinavian Journal of Educational Research, 63(7), 1056–1069. https://doi.org/10.1080/00313831.2018.1476407 Lastusaari, M. (2018). Persistence in Major in Related to Learning Approaches - Development of a questionnaire for university chemistry students [Doctoral thesis]. University of Turku. Lastusaari, M., Laakkonen, E., & Murtonen, M. (2016). ChemApproach: validation of a questionnaire to assess the learning approaches of chemistry students. Chemistry Education Research and Practice, 17(4), 723–730. https://doi.org/10.1039/C5RP00216H Organisation for Economic Co-operation and Development. (2019). Education at a glance 2019 : OECD indicators (p. 493). OECD Publishing. https://doi.org/https://doi.org/10.1787/f8d7880d-en. Parpala, A., Lindblom-Ylänne, S., Komulainen, E., Litmanen, T., & Hirsto, L. (2010). Students’ approaches to learning and their experiences of the teaching-learning environment in different disciplines. British Journal of Educational Psychology, 80(2), 269–282. https://doi.org/10.1348/000709909X476946 Widlund, A., Tuominen, H., & Korhonen, J. (2023). Motivational Profiles in Mathematics - Stability and Links with Educational and Emotional Outcomes [Manuscript submitted for publication]. https://doi.org/10.31234/osf.io/ugrpy 22. Research in Higher Education
Paper Exploring Cloud Physics with Graph Theory: Representing and Analysing Conceptual Understanding 1Geophysical Institute, University of Bergen, Norway; 2Bjerknes Centre for Climate Research, Bergen, Norway; 3Department of Physics and Technology, University of Bergen, Norway Presenting Author:This study investigates the evolution in conceptual understanding of cloud physics among learners from diverse academic backgrounds, using the mathematical framework of graph theory. Cloud physics is an inherently multidisciplinary area of research, and therefore also of teaching in higher education. Challenges related to the understanding and modeling of clouds influence one of the main uncertainties in climate models [1], as well as a range of other areas, like affect aircraft operations and remote sensing technologies. Cloud physics education therefore represents a key aspect in atmospheric science education and, more widely, in geoscience education [2]. Recent academic efforts have addressed the difficulties encountered by learners in the discipline [3, 4, 5, 6], yet more is to be done to connect these with the conceptual structure of cloud physics. Graph theory is an established field of mathematics, but the use of graph structures in education is relatively new [7, 8, 9, 10, 11], offering new perspectives to discipline-based educational research. Graph structures are networks of nodes connected with edges, and in our case networks of concepts from cloud physics connected with directed arrows by the participants of our study. The algorithmic power of graph theory affords characterization of both the mathematical graph structure and the role of the nodes that compose it. In this study, participants hand-drew concept maps depicting the life-cycle of a cloud, reflecting their understanding of cloud physics. We coded the maps according to thematic analysis and transformed them into graph structures in Python. A "map of cloud physics" is created, depicting the joint graph representation of all participants. Studying this representation presents a novel way to look at the field and inspires a series of follow-up investigations to inform the disciplinary teaching and learning practices. We present sub-graphs based on the participants' academic experience. While Novice represents the group with no formal academic exposure to cloud physics, a comparison of the Adept and Advanced groups highlights the main changes induced by an increasing experience in the discipline. We represent the core knowledge of each group, corresponding to the nodes and edges of highest consensus, using a hierarchical structure. We also compute the groups' agreement with regard to the predecessors and successors of the used concepts, and define a new node-level metric measuring these quantities. The evolution of the computed metrics through the experience-gradient provides a diagnosis of both the changes occurring along a learner's journey in cloud physics, and of the structure of the discipline and its inherent conceptual complexities. Overall, our results both qualify and quantify the epistemological shift in the description of the life-cycle of a cloud, from the general physics of the water cycle to detailed description of cloud microphysical processes, as learners mature in their understanding of the discipline. Our findings can be used by lecturers to tailor their teaching towards the identified expert-like concepts, and by students to anticipate the main complexities in the field during their learning process. (As our work in this study is very graphical, for both visualisation and analysis purposes, the above explanations would undoubtedly profit from a few visual inputs, which we would be happy to provide to the reader upon request.) Methodology, Methods, Research Instruments or Sources Used We collected concept maps from 117 participants from five different academic teaching and research institutions in Norway between Nov 2022 and Sep 2023. The participants were asked to graphically depict the life-cycle of a cloud, from the early conditions for formation to their dissipation, using around ten minutes for the exercise. The instructions were to draw and label nodes representing scientific concepts, and connect them with unlabeled directed arrows wherever they seemed appropriate. The information collected from the participants informed about their disciplinary field (six disciplines of STEM), academic level (bachelor, master, PhD, researcher), and experience with cloud physics (Novice, Adept, Proficient, Expert). The concept maps were coded according to thematic analysis (with thematic saturation reached at about 110 concepts) and converted to graph structures via the creation of adjacency matrices in Python. The joint weighted graph of all the collected data presents a “map of cloud physics” reflecting the collective understanding of all the participants. Setting threshold levels of consensus on edges reveals valuable substructures on this map. A 3D web-visualization allows to navigate the map and highlight specific areas according to criteria set by the user. We computed graph-level metrics such as density, diameter and intertwinement for each participant, and created box-plots of these metrics according to the participants’ disciplinary field, academic level and cloud physics experience. Grouping the participants according to their experience with cloud physics led to the largest variance of graph metrics, motivating clustering the data into Novice, Adept, Proficient and Expert groups. A further grouping of Proficient and Expert into Advanced was also introduced. We identified for each group a “layer-structure” in their collective graph according to consensus threshold values set on edges. The layers of highest consensus correspond to the core knowledge of each group, which we represent using a hierarchical structure that indicates the optimized way of navigating their sub-graphs. For the Advanced group, the core knowledge sub-graph can directly be used to inform teaching and learning. Node-level metrics were then computed for each group, in particular right/left-eigenvector, betweenness, and out/in-degree centralities. Expanding on the degree centrality measures, we created a new metric that quantifies the agreement of a group on the successors and predecessors of a node. A study of the rate of change of these node-level metrics across groups highlights the concepts becoming central, and thus important, in the conceptual understanding of these groups as their disciplinary experience increases. Conclusions, Expected Outcomes or Findings Our analysis shows that the agreement on the origins and effects of the concepts Adiabatic Cooling and Heterogeneous Nucleation increases with experience, indicating an increasingly precise understanding and knowledge. This agreement decreases with experience for Evaporation, Rain and Shortwave Radiation, making us suggest that these concepts have an inherently more complex role within the storyline of a cloud. We also show that the importance of specific concepts such as Droplet Growth and Convection increases with experience in explanations of more advanced learners, whereas that of more general concepts such as Water Mass and Condensation decreases. Convection, Droplet Growth and Maturation also gain importance as bridges enabling the flow of information in the graphs of more experienced groups of learners. The hierarchical graph of the Advanced-group reveals a three-part structure of cloud physics: 1) the atmospheric physics and thermodynamics, from an ascending mass of moist air to droplet nucleation; 2) the aerosol physics behind cloud formation; and 3) the mechanisms behind droplet growth and ice crystal nucleation during the maturation phase of the cloud. Such a result can be used as a recommendation to introduce the topic sequentially in a teaching and learning setting. Using concept mapping narratives as a proxy and the theoretical framework of graph theory, differences in understanding of cloud physics in groups of varying experience have been quality-tested and quantified. We believe that the methodology developed within this study has the potential to be applied to other disciplines of the STEM curriculum, and could thus inform their teaching and learning practices. The visual representation of a discipline through a large and dense network could, in particular, form a helpful tool for both teachers and learners. The applied methodology makes structures emerge from large "maps", and reveals how increasing experience in a discipline changes how learners navigate them. References [1] Morrison, H., van Lier-Walqui, M., Fridlind, A. M., Grabowski, W. W., Harrington, J. Y., Hoose, C., Korolev, A., Kumjian, M. R., Milbrandt, J. A., Pawlowska, H., Posselt, D. J., Prat, O. P., Reimel, K. J., Shima, S. I., van Diedenhoven, B., & Xue, L. (2020). Confronting the Challenge of Modeling Cloud and Precipitation Microphysics. Journal of Advances in Modeling Earth Systems, 12(8). https://doi.org/10.1029/2019MS001689 [2] Cervato, C., Charlevoix, D., Gold, A., & Kandel, H. (2018). Research on Students’ Conceptual Understanding of Environmental, Oceanic, Atmospheric, and Climate Science Content. In K. St. John (Ed.), Community Framework for Geoscience Education Research (pp. 17–34). National Association of Geoscience Teachers. https://doi.org/10.25885/ger_framework/3 [3] Davenport, C. E., & French, A. J. (2019). The Fundamentals in Meteorology Inventory: Validation of a tool assessing basic meteorological conceptual understanding. Journal of Geoscience Education, 68(2), 152–167. https://doi.org/10.1080/10899995.2019.1629193 [4] Gopal, H., Kleinsmidt, J., Case, J., & Musonge, P. (2004). An investigation of tertiary students’ understanding of evaporation, condensation and vapour pressure. International Journal of Science Education, 26(13), 1597–1620. https://doi.org/10.1080/09500690410001673829 [5] Handlos, Z. J., Davenport, C., & Kopacz, D. (2022). The “State” of Active Learning in the Atmospheric: Sciences Strategies Instructors Use and Directions for Future Research. Bulletin of the American Meteorological Society, 103(4), E1197–E1212. https://doi.org/10.1175/BAMS-D-20-0239.1 [6] Petters, M. (2021). Interactive worksheets for teaching atmospheric aerosols and cloud physics. Bulletin of the American Meteorological Society, 102(3), E672–E680. https://doi.org/10.1175/BAMS-D-20-0072.1 [7] Giabbanelli, P. J., Tawfik, A. A., & Wang, B. (2023). Designing the next generation of map assessment systems: Open questions and opportunities to automatically assess a student’s knowledge as a map. Journal of Research on Technology in Education, 55(1), 79–93. https://doi.org/10.1080/15391523.2022.2119449 [8] Selinski, N. E., Rasmussen, C., Wawro, M., & Zandieh, M. (2014). A method for using adjacency matrices to analyze the connections students make within and between concepts: The case of linear algebra. Journal for Research in Mathematics Education, 45(5), 550–583. https://doi.org/10.5951/jresematheduc.45.5.0550 [9] Tatsuoka, M. M. (1986). Graph Theory and Its Applications in Educational Research: A Review and Integration. Review of Educational Research, 56(3), 291–329. https://doi.org/10.3102/00346543056003291 [10] Wagner, S., & Priemer, B. (2023). Assessing the quality of scientific explanations with networks. International Journal of Science Education, 45(8), 636–660. https://doi.org/10.1080/09500693.2023.2172326 [11] Wagner, S., Kok, K., & Priemer, B. (2020). Measuring characteristics of explanations with element maps. Education Sciences, 10(36). https://doi.org/10.3390/educsci10020036 |
Date: Thursday, 29/Aug/2024 | |
9:30 - 11:00 | 22 SES 09 A: Employability and Entrepreneurship Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Gernot Herzer Paper Session |
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22. Research in Higher Education
Paper PROMOTING EMPLOYABILITY SKILLS TRHOUGH AUTHENTIC LEARNING SCENARIOS: Three Examples from Higher Education in Europe Stockholm University, Sweden Presenting Author:This paper examines three interventions in three professional programmes in higher education in Europe. The aim of the study is to evaluate the implementation of three learning scenarios that use authentic learning theory to improve professional competence and students’ employability skills. The data come from an Erasmus+ project involving three countries and 120 students. A design-based research approach is used for the first iteration of interventions. The results show how the authentic learning framework was realised in the three contexts and which elements of the framework were challenging. The key findings are that authenticity is not realised in one element of the model in isolation, but through the interaction between several elements, and that some elements of the theoretical model are crucial for realising others. Methodology, Methods, Research Instruments or Sources Used This study adopts a design-based research approach that frames the research design of the study (McKennie & Reeves, 2019; van den Akker et al., 2006). This approach is defined by its intention to develop theoretical insights and practitioner solutions to real problems identified in educational contexts. The research design of this study is more specifically an evaluation study within the field of design research (Plomp, 2013). In this study, the educational challenge is how learning is achieved in real life and how students in HE settings learn theoretical, decontextualised knowledge. The intention of this study is to design learning environments in order to validate authentic learning theories (Herrington et al., 2010; Plomp, 2013) and how learning environments can be designed in three different professional HE contexts in Europe. The methodological steps follow the iteration of the systematic design cycles (Plomp, 2013). The problem to be solved is making HE settings more relevant and able to better prepare students for the transition from education to workplace. The study is based on the Erasmus+ Skill Up project’s analysis, which resulted in the development of a taxonomy of employability skills required for new graduates (Ornellas et al., 2019). With its point of departure in interventions using state-of-the-art practices and different theoretical frameworks, the Erasmus+ Skill Up project designed a prototype (here called a ‘learning scenario’) in a professional HE course in Spain, Germany and Sweden. In total, 120 students took part in the three different courses. The focus of this study is on the evaluation of the three learning scenarios in the first iteration cycle. The evaluation is based on the three courses’ syllabuses and documentation about the implementation of the learning scenario. The focus of the analysis is on how the theoretical framework of authentic learning (Herrington et al., 2010) was used in order to design an authentic learning scenario where the students got the opportunity to learn in a more contextualised real-life environment. The analysis is deductively performed (Bingham & Witkowsky, 2022), with the point of departure in the nine characteristics of authentic learning (Herrington et al., 2010.) Conclusions, Expected Outcomes or Findings This study shows the importance of the dynamic interactions (Barab et al., 2000) and relations between the different elements of the authentic learning model (Herrington et al., 2010), and some of these elements seem to be of high importance for others. For the next iteration of the three contexts, it would be wise to focus on three elements – two of which seem to be crucial – since the interaction between the elements was shown to be key. The first element that can be improved is the authentic context, which has implications both for authentic activities and multiple roles and perspectives. The second crucial element to be improved is collaboration, which has implications for both reflection and articulation. Thirdly, the element of assessment can also be improved, which has implications for the element of articulation but is essential in order to reflect a real-world assessment. Further detailed studies are recommended on the interactions between the different elements of the model in order to promote employability skills and increase the quality of HE settings. References Barab S A, Squire K D and Duebe W (2000) A Co-Evolutionary Model for Supporting the Emergence of Authenticity. Educational Technology Research and Development 48(2): 37–62. Bingham, A.J., & Witkowsky, P. (2022). Deductive and inductive approaches to qualitative data analysis. In C. Vanover, P. Mihas, & J. Saldaña (Eds.), Analyzing and interpreting qualitative data: After the interview (pp. 133-146). SAGE Publications. Herrington, J., Reeves, T.C. and Oliver, R. (2010), A Guide to Authentic E-learning, Routledge, London. Ornellas, A., Falkner, K., & Edman Stålbrandt, E. (2019). Enhancing graduates’ employability skills through authentic learning approaches. Higher education, skills and work-based learning, 9(1), 107-120. Plomp, T. (2013). Educational design research: An introduction. Educational design research, 11-50. Reeves, T.C. (2006). Design research from a technology perspective. In J. Van den Akker, K. Gravemeijer, S. McKenney& N. Nieveen (Eds.), Educational design research (pp. 52-66). London: Routledge. Van den Akker, J., Gravemeijer, K., & McKenney, S. (2006). Introducing educational design research. In Educational design research (pp. 15-19). Routledge. 22. Research in Higher Education
Paper Classifying Responsible Management Education: Adapting the About/For/Through (AFT) Framework from Entrepreneurship Education Liverpool John Moores University, United Kingdom Presenting Author:In today’s rapidly evolving business landscape, marked by a heightened focus on social responsibility and sustainability, management education stands at a crucial juncture (Tahmassebi and Najmi, 2023). Addressing the conference theme, “Education in an Age of Uncertainty: memory and hope for the future,” this paper introduces an innovative approach to conceptualise and categorise Responsible Management Education (RME) by adapting the ‘About/For/Through’ (AFT) framework from Entrepreneurship Education. Following the principles outlined by O’Connor (2013) in “A Conceptual Framework for Entrepreneurship Education Policy: Meeting Government and Economic Purposes” and integrating insights from Lozano et al.’s (2013) “Conceptions of Responsible Management Education,” this adaptation aims to provide a multi-dimensional lens for analysing and structuring RME initiatives, thereby enhancing their efficacy and alignment with global sustainable development goals. RME, in the context of rapidly changing societal expectations (Laasch and Conaway, 2015; Tahmassebi and Najmi, 2023), confronts the challenge of developing educational strategies that are both practically relevant and theoretically robust. The existing literature on RME, while diverse, often lacks a unified framework for systematic classification and assessment (Nonet at al., 2016), hindering the effective design and evaluation of RME programmes by educational institutions and policymakers. The AFT framework, with its proven success in Entrepreneurship Education as detailed by Fayolle and Gailly (2008) and its potential adaptability to RME emerges as a suitable tool, offering a structured approach to navigate these uncertainties. It categorises education into three dimensions: ‘For’ emphasises practical skills, ‘About’ focuses on theoretical knowledge, and ‘Through’ involves experiential learning and personal development. Reviewing the current state of RME underscores the need for a structured framework that captures the multidisciplinary nature of responsible management. The AFT framework’s versatility lies in encompassing RME’s diverse facets, including ethical decision-making, sustainability, corporate social responsibility, and stakeholder engagement. In this regard, the ‘About’ dimension is foundational, offering a deep understanding of theories related to responsible management. The ‘For’ dimension translates this knowledge into competencies for responsible management practices. The ‘Through’ dimension, perhaps the most innovative, emphasises transformative learning via methods like service-learning and community engagement, aligning with the conference theme by fostering a future-oriented approach in management education. This paper asserts that this tripartite framework can serve as a valuable tool for educators and institutions in designing, implementing, and evaluating RME initiatives. It aids in identifying current programme strengths and weaknesses and provides guidance for future development. Moreover, it fosters a nuanced understanding of integrating RME across different educational levels, in line with broader sustainability and ethical leadership goals in business education as emphasised in the United Nations Principles for Responsible Management Education (PRME) initiative. This adaptation of the AFT framework promises significant contributions to RME’s evolution, providing a coherent, adaptable, and impactful structure for educators and policymakers. Methodology, Methods, Research Instruments or Sources Used This study employs the Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) guidelines, as outlined in Moher et al.’s (2010) “Preferred Reporting Items for Systematic Reviews and Meta-Analyses: The PRISMA Statement.” PRISMA’s structured approach ensures a transparent, replicable research process, essential for synthesising existing research comprehensively. The systematic literature search is conducted across multiple academic databases, including Web of Science, Scopus, and Google Scholar, covering publications from 2014 to 2024. Keywords include “Responsible Management Education,” “Sustainability in Management Education,” “Ethical Leadership Education,” and “About/For/Through Framework.” Inclusion criteria are articles centred on RME, studies discussing integrating sustainability and ethics in management education, and research exploring educational frameworks, especially the AFT model. PRISMA’s standardised approach is pivotal in capturing the diverse and interdisciplinary nature of RME. This methodical review is vital for identifying common themes, gaps, and potential applications of the ‘AFT’ framework in RME. It lays a foundation for meta-analysis, standardising data extraction, quality assessment, and synthesis processes, enabling effective comparison and consolidation of findings. This methodology will enhance the credibility and academic rigor of the paper, ensuring robust conclusions that contribute both meaningfully and responsibly to RME in an age of uncertainty. Conclusions, Expected Outcomes or Findings Employing the PRISMA guidelines to review literature on RME and its potential alignment with the AFT framework from Entrepreneurship Education, this study anticipates four key outcomes that would significantly contribute to business education’s evolving landscape in these uncertain times. Firstly, the systematic review is expected to offer a comprehensive overview of RME’s current state, highlighting how sustainability, ethics, and corporate responsibility are integrated into management education. This includes identifying strengths, weaknesses, and variations in existing approaches. Secondly, a major anticipated outcome is that the AFT framework is adaptable and relevant for RME, providing a novel perspective for (re)viewing RME. This framework emphasises theoretical (‘About’) and practical (‘For’) aspects and transformative learning experiences (‘Through’), crucial in shaping future-oriented responsible leaders. Thirdly, the paper aims to identify innovative RME approaches and best practices for each of the AFT component, offering valuable insights for educators and administrators. Fourthly, the outcomes include guidelines for effectively integrating the AFT framework into RME curricula, thus aligning RME with future-focused educational goals. More broadly, the paper expects to conclude that the adapted framework offers a nuanced understanding of RME’s impact, shaping attitudes towards responsible management and competence in sustainable practices, pivotal in an age of uncertainty. The findings will have significant implications for educational institutions and policymakers, guiding the development and evaluation of comprehensive, effective RME programmes. References Fayolle, A., & Gailly, B. (2008). From craft to science: Teaching models and learning processes in entrepreneurship education. Journal of European industrial training, 32(7), 569-593. Laasch, O., & Conaway, R. N. (2015). Principles of responsible management: glocal sustainability, responsibility, ethics. Cengage. Lozano, R., Lukman, R., Lozano, F. J., Huisingh, D., & Lambrechts, W. (2013). Declarations for sustainability in higher education: becoming better leaders, through addressing the university system. Journal of cleaner production, 48, 10-19. Moher, D., Liberati, A., Tetzlaff, J., Altman, D. G., & Prisma Group. (2010). Preferred reporting items for systematic reviews and meta-analyses: the PRISMA statement. International journal of surgery, 8(5), 336-341. Nonet, G., Kassel, K., & Meijs, L. (2016). Understanding responsible management: Emerging themes and variations from European business school programs. Journal of business ethics, 139, 717-736. O’Connor, A. (2013). A conceptual framework for entrepreneurship education policy: Meeting government and economic purposes. Journal of business venturing, 28(4), 546-563. Tahmassebi, H., & Najmi, M. (2023). Developing a comprehensive assessment tool for responsible management education in business schools. The International Journal of Management Education, 21(3), 100874. |
13:45 - 15:15 | 22 SES 11 A: Distance Education and Inclusion Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Chris Kubiak Paper Session |
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22. Research in Higher Education
Paper Impacts of Class Size on Students’ Learning Outcomes in College Online Courses 1Peking University, China, People's Republic of; 2Central University of Finance and Economics Presenting Author:Synchronous online courses gained popularity during the pandemic and have since become the predominant course delivery format for online courses due to their ability to reduce educational cost while preserving real-time communication and immediate feedback (Bailenson, 2021). The rapid growth of synchronous course prompts questions about improving the quality of online courses at scale (Bettinger et al., 2017; Lowenthal et al., 2019; Russell & Curtis, 2013; Xu & Xu, 2020).. One area of intense debate in this context is the role of class size in online courses. However, limited research has quantitatively examined the effects of class size on student learning outcomes in college synchronous online courses. Assessing these effects is a pertinent issue: If increasing class size in synchronous online courses does not compromise student learning outcomes, it opens up the possibility for departments to consider offering larger synchronous online classes. This approach could help reduce educational costs and enhance accessibility without sacrificing student engagement. This study addresses this gap by answering three main research questions. First, what is the impact of class size on students’ academic performance and course satisfaction? Second, what are the mechanisms through which class size effects operate? Third, how do class size effects vary along the distribution of class sizes (Non-linear effects)? We analyzed data from an anonymous research university (ARU hereafter) in China. Due to the COVID-19 pandemic, all courses in the spring semester of 2020 in ARU were delivered online synchronously, with approximately 82% delivered via ClassIn, which was a popular platform for online course delivery in China at the time. This study focused on undergraduate students enrolled in synchronous online courses for the duration of the semester. Furthermore, this study examined courses categorized as “lecture” sections, excluding physical education and lab courses. As a result, our sample comprised 6,603 undergraduate students enrolled in one of the 638 synchronous online classes offered by 30 departments. We obtained data from two sources: (1) administrative data, which includes students’ and instructors’ demographic characteristics, class enrollment size, students’ academic performance, and instructors’ teaching evaluation, etc., and (2) clickstream data generated by the ClassIn platform, which captured information such as the length of time students were assigned to interact with their peers and instructors, as well as their time spent in the virtual classroom. We began by estimating the effects of class size on students’ academic outcomes and course satisfaction. Our analyses indicate that class sizes negatively affect course grades and course satisfaction in synchronous online courses. Drawing on the rich clickstream information generated by the online platform, we examined two channels through which class size effects may operate: (i) students’ course attendance and (iii) course interaction opportunities. Our findings suggest that reduced course interaction opportunity is the most robust channel through which larger classes negatively affect students’ academic outcomes and course satisfaction. In addition, we explore non-linearities in the class size effect and heterogeneity by students’ academic preparation, grade level, and course credits. Our findings indicate a consistent negative effect across the entire spectrum of class sizes, with larger class sizes exhibiting increasingly detrimental effects. We also found that the negative relationship between class size and student outcomes is highly robust across different types of students. Methodology, Methods, Research Instruments or Sources Used We analyzed the effects of class size on students’ outcomes, using within-student variation in class sizes: yicm= αi + βm + γCScm + δXcm + θPcm + φTcm + εicm (1) where yicm is an outcome, such as course grade for student i in class c in department m. αi represents student fixed effect, which allows for comparisons among different classes taken by the same student, thereby mitigating bias associated with students’ self-section into different classes. βm represents department fixed effects, enabling comparisons among different classes within the same field of study. CScm captures the class size in class c of department m, defined by the number of students enrolled in the classes and the average number of students presenting in the class over the semester. Xcm represents control variables on class c in department m, such as course credits and course classifications. To account for the peer group composition within a class, we controlled for Pcm, including the share of male students, the proportion of students with average grade points in the lowest quartile, and the proportion of seniors. Tcm captures the characteristics of teachers in a course, such as their gender, job title, age, educational attainment, etc. However, considering that more than one faculty member can teach a class, the term Tcm represents the faculty composition of class c. This term includes the number of faculty involved in teaching the particular class, the proportion of male faculty, the proportion of professors, the ratio of overseas returning faculty, the average age of teachers, and the average teacher evaluation score. Finally, the error term εicm was clustered by course to capture common unobservable shocks to students’ outcome variables. We further calculated the implied effect size. The measure estimates the proportion of the within-student standard deviation in outcome variables that can be explained by a one standard deviation increase from the mean class size. We then examined whether there were any nonlinear class size effects using Equation (2). To do so, we categorized students into four quantiles based on the distributions of both class enrollment sizes and actual class sizes. yicm= αi + βm + ∑ γqCSqcm + δXcm + θPcm + φTcm + εicm (2) where CSqcm equals to one if the class size is in the qth quantile of class size distribution, and zero otherwise. Conclusions, Expected Outcomes or Findings There is robust evidence of a negative class size effect on students’ academic achievement. Our study also revealed evidence of nonlinear class size effects on course grades in synchronous online courses. Specifically, we observed a negative impact between the first two quantiles and the last two quantiles. The results indicate that there were beneficial effects when moving both from mid-sized to smaller classes and from the very large to large classes. Our analysis also sheds light on the negative impact of class sizes on student course satisfaction. Unlike the nonlinear effects observed on course grades, the impact on course satisfaction showed a distinct pattern. It became more significant when moving from the first to the second quantile (class sizes ranging from 2 to 15 students and 16 to 24 students). However, there seems to be no further detrimental effect when moving from the second to the third quantile or from the third to the fourth quantile. Therefore, it appears that the class size range of 16 to 24 students was where the negative class size effect on course satisfaction reached its highest magnitude. In terms of the mechanisms, our findings suggest that, on average, class size did not have a significant association with class attendance. However, we did observe nonlinear effects where the course attendance rate began to decline when class sizes exceeded 24 students. Additionally, we consistently observed notable negative correlations between class size and student course interaction opportunities. In conclusion, our study highlighted the importance of considering class size as a factor influencing student attendance and course interaction opportunities. References Bettinger, E. P., Fox, L., Loeb, S., & Taylor, E. S. (2017). Virtual Classrooms: How Online College Courses Affect Student Success. American Economic Review, 107(9), 2855–2875. https://doi.org/10.1257/aer.20151193 Lowenthal, P. R., Nyland, R., Jung, E., Dunlap, J. C., & Kepka, J. (2019). Does class size matter?: An exploration into faculty perceptions of teaching high-enrollment online courses. American Journal of Distance Education, 33(3), 152–168. https://doi.org/10.1080/08923647.2019.1610262 Russell, V., & Curtis, W. (2013). Comparing a large- and small-scale online language course: An examination of teacher and learner perceptions. The Internet and Higher Education, 16, 1–13. https://doi.org/10.1016/j.iheduc.2012.07.002 Xu, D., & Xu, Y. (2020). The ambivalence about distance learning in higher education: Challenges, opportunities, and policy implications. In L. W. Perna (Ed.), Higher Education: Handbook of Theory and Research (Vol. 35, pp. 351–401). Springer International Publishing. https://doi.org/10.1007/978-3-030-31365-4_10 22. Research in Higher Education
Paper Metaphorical Conceptualizations of Undergraduate Students during Uncertain Times: Insights from an International Higher Education Institution Middle East Technical University Northern Cyprus Campus Presenting Author:Although much has been written on emergency remote teaching occasioned by the circulation of the COVID-19 virus around the world, existing studies tend to hold a somewhat single-dimensional perspective by paying attention solemnly in the initial stages of the pandemic or the post-pandemic period when education started to “normalize”. Moreover, directing more attention towards the unprecedented factor of the situation, existing studies seem to overlook the extent to which students were prepared for education during unexpected pandemics, wars, natural disasters, such as earthquakes, or navigating ethical concerns raised by generative AI, creating blind spots where higher education institutions are not critically evaluated. Departing from this premise, our paper puts a spotlight on the problematic nature of the COVID-19 pandemic and its implications for higher education as a vantage point.
To gain an in-depth understanding of how COVID-19 affected instruction so far and what it brought with it, we believe there is a need to consider both periods (switching to ERT and reverting to face-to-face) simultaneously. Considering the current wars and the possible outbreak of a similar pandemic where education has and might be disrupted again, it becomes much more important to conduct research in this area utilizing metaphorical images that students use to conceptualize themselves during online teaching and face to face teaching. Metaphors are useful in gaining a nuanced understanding of students’ experiences as they offer insight into the process participants go through by providing a conceptual framework through which we can perceive and interpret their experiences in relation to other familiar concepts or ideas (Saban, 2010). Moreover, metaphors can be used for reflection (e.g. Lynch & Fisher-Ari, 2017) as they are a powerful means to reify previous experiences (Zhao, Coombs & Zhou, 2010) or to explore participants' cognition, including identities (e.g. Thomas & Beauchamp, 2011) beliefs (Ulusoy, 2022), as well as experiences (e.g. Craig, 2018) because they not only add a new perspective, generate a discussion of a certain topic (Saban, 2010), also “tease out connections which might not be made use of by direct questions” (Leavy, McSorley, & Bote, 2007, p. 1220).
In this study, we captured undergraduate students’ metaphorical conceptualizations of themselves during COVID-19 not only during online teaching but also in times of face-to-face teaching periods while the pandemic was ongoing. By exerting attention towards understanding university students' cognitive constructs through the use of metaphors, it is hoped that the study will help university students situate their learning context, in this case, ERT, and switch back face-to-face into their own reality. In this sense, it will also guide educators and teacher trainers in designing programs to support university students' learning process and help them be ready for similar scenarios. The findings from this study will also build upon the growing literature on ERT within an international higher education English Medium University (EMI) context and thus shed light on perceptions and needs of undergraduate students particularly during uncertain times and new steps to be taken in designing effective educational programs.With this in the background, the following research questions were developed according to Saban’s (2010) metaphor research question structure:
Methodology, Methods, Research Instruments or Sources Used We collected the data using two metaphor-generation method prompts. We developed the prompts in English using Saban, Kocbeker, and Saban’s (2007) metaphor-generation method. We then revised and modified the writing prompts based on expert opinion from three faculty members. Our prompts were: An undergraduate student during the COVID-19 online teaching period is like…because… An undergraduate student during the COVID-19 face-to-face teaching period is like...because… We conducted our study on the North Cyprus campus of an internationally recognized English-medium university located in Turkey. We sent an invitation email to all undergraduate students in the university. The email included information about our study and a link to the Google form we developed to collect the data. The form included three parts: (a) an informed consent form approved by the University’s Ethics committee, (b) demographic questions (i.e., gender, age, major, class level, and nationality, as well as accommodation status while attending online classes during ERT) and (c) the metaphor prompts. Undergraduate students who agreed to participate in the study responded to the questions anonymously. The data collection lasted around three weeks. We ended up with 114 well-formed metaphors from undergraduate students from different year groups (76 male 37 female and 1 non-binary) enrolled in different programs, including Economics and Administrative Sciences, Education and Humanities, and Engineering programs. 87 participants were Turkish and Turkish Cypriots and 27 were international students. International students were from Azerbaijan (n=3), Kenya (n=4), Bangladesh (n=1), Egypt (n=2), India (n=1), Kazakhstan (n=2), Nigeria (n=4), Pakistan (n=5), RW (n=1), United Arab Emirates (n=1), Saudi Arabia (n=1), and Syria (n=1). One participant did not prefer to share citizenship information. Participants’ ages ranged between 17 and 28 years. Data was exposed to inductive content analysis. We coded the participants' metaphorical images in their responses for each metaphor prompt (e.g., fish in an aquarium, prisoner). We eliminated the student responses that included a metaphorical image without metaphorical reasoning as recommended by Saban (2010), and that did not include a metaphor but general views about students or education during the pandemic (e.g., An undergraduate student during the Covid-19 online teaching period is depressed and hopeless because it was awful not to know when we will go to the campus). We double-coded the data to categorize the codes under the themes and eliminate overlapping and redundant codes (Creswell, 2011). Conclusions, Expected Outcomes or Findings The results revealed three major themes regarding students’ conceptualizations of themselves during the COVID-19 online teaching period: (a) students as absolute complaints (among some representative metaphorical images were a prisoner, being trapped in an untidy room, fish in an aquarium, wings of a hummingbird trapped in a slow dream); (b) students as controllers of their own learning (among some representative metaphorical images were someone in heaven, a time controller, and an artist in an album zone); and (c) students as overwhelmed beings (among some representative metaphorical images were torture, fish out of the pond, punching a wall, and fitting everything in a room). The results revealed three major themes regarding students’ conceptualizations of students during the COVID-19 face-to-face teaching period: (a) Students enjoying a long-awaited reunion (among some representative metaphorical images were having undergone a beautiful struggle, watching a slow-moving river, drinking cold water in a hot summer); (b) students experiencing discomfort (among some representative metaphorical images were a beast in a struggle, nightmare, a teenager navigating high school, and torture); and (c) students with mixed experiences (among some representative metaphorical images were astronaut returning to earth from space, and being a stranger). Our results showed that students’ major, class level, and where they lived while attending online classes may have influenced their metaphorical images during COVID-19 online and face-to-face instruction. Although conducted with a small sample size, this study has important implications for fostering student resilience and sustainability of education during uncertain times. Our results suggest that undergraduate students need their voices to be heard. In occasions such as emergencies where new policies need to be implemented, it is necessary to include undergraduate students in the decision-making process. Educators need to revisit their teaching practices and adapt them according to students’ current needs particularly during emergent times. References Craig, C. J. (2018). Metaphors of knowing, doing and being: Capturing experience in teaching and teacher education. Teaching and Teacher Education, 69, 300-311.doi.org/10.1016/j.tate.2017.09.011 Creswell, J. W. (2011). Educational research: Planning, conducting, and evaluating quantitative and qualitative research (4th ed.). Pearson Education. Leavy, A. M., McSorley, F. A., & Boté, L. A. (2007). An examination of what metaphor construction reveals about the evolution of preservice teachers’ beliefs about teaching and learning. Teaching and teacher education, 23(7), 1217-1233.doi.org/10.1016/j.tate.2006.07.016 Lynch, H. L., & Fisher-Ari, T. R. (2017). Metaphor as pedagogy in teacher education. Teaching and Teacher Education, 66, 195-203.doi.org/10.1016/j.tate.2017.03.021 Saban, A., Kocbeker, B. N., & Saban, A. (2007). Prospective teachers' conceptions of teaching and learning revealed through metaphor analysis, Learning and Instruction, 17(2), 123-139. doi.org/10.1016/j.learninstruc.2007.01.003 Saban, A. (2010). Prospective teachers' metaphorical conceptualizations of learner. Teaching and Teacher Education, 26 (2), 290-305. doi.org/10.1016/j.tate.2009.03.017 Thomas, L., & Beauchamp, C. (2011). Understanding new teachers’ professional identities through metaphor. Teaching and teacher Education, 27(4), 762-769.doi.org/10.1016/j.tate.2010.12.007 Ulusoy, M. (2022). A metaphorical journey from pre-service to in-service years: A longitudinal study of the concepts of the student and the teacher. Teaching and Teacher Education, 115, 103726. doi.org/10.1016/j.tate.2022.103726 Zhao, H., Coombs, S., & Zhou, X. (2010). Developing professional knowledge about teachers through metaphor research: Facilitating a process of change. Teacher Development, 14(3), 381-395.doi.org/10.1080/13664530.2010.504024 |
15:45 - 17:15 | 22 SES 12 A: NETWORK MEETING Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Mariana Gaio Alves Network Meeting |
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22. Research in Higher Education
Paper NW 22 Network Meeting UIDEF - IE - ULisboa, Portugal Presenting Author:Networks hold a meeting during ECER. All interested are welcome. Methodology, Methods, Research Instruments or Sources Used . Conclusions, Expected Outcomes or Findings . References . |
Date: Friday, 30/Aug/2024 | |
9:30 - 11:00 | 22 SES 14 A: *** CANCELLED *** Using Abductive and Reflexive Methods to Study Collaboration in Interdisciplinary Education Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Molly Sutphen Research Workshop |
11:30 - 13:00 | 22 SES 16 A: Policies and Best Practices on Researcher Well-being and Mental Health across Europe Location: Room 039 in ΘΕE 01 (Faculty of Pure & Applied Sciences [FST01]) [Ground Floor] Session Chair: Gokce Gokalp Panel Discussion |
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22. Research in Higher Education
Panel Discussion Policies and Best Practices on Researcher Well-being and Mental Health across Europe 1Middle East Technical University, Turkiye; 2Erzincan Binali Yıldırım University, Türkiye; 3Institute of Occupational Health of RN Macedonia, WHOCC, GA2LEN CC, Allergy Center; 4Faculty of Medicine, Ss. Cyril and Methodius, University in Skopje, Macedonia; 5Leibniz Information Center for Science and Technology (TIB) Germany; 6University of Montenegro Presenting Author:According to a comparison of different occupational groups, academics rank among those with the highest levels of common mental problems: the prevalence of common psychological disorders estimated to be between 32% and 42% among academic employees and postgraduate students, compared to approximately 19% in the general population (Levecque, K. et.al.,2017). The recently experienced worldwide COVID-19 pandemic has also had significant effects on the working conditions in academia related to research, teaching and learning activities, worsening the pre-existing problem. There is significant literature on how researchers, in general, and early career researchers (ECR) in particular, are affected by the pandemic in terms of their research activity and environments, (academic) career development and prospects, and mental health and well-being. There are some reports which showed increase in job-loss fears, interrupted research and anxiety about the future (Woolston, 2020a) and seeking exit plans for leaving academia due to conditions caused by the pandemic (Woolston, 2020b). The 2021 OECD report on research precarity, examining the policies and practices used to attract the most talented to improve quality of science, highlighted the worsening working conditions of postdoctoral researchers and their detrimental effects on researcher’s well-being encouraging stakeholders to quickly implement actions to prevent a loss of research talent, emphasizing the importance of stengthening the well-being of researchers. In line with this, the World Health Organisation (WHO, 2013), the International Labour Organisation (ILO, 2017), Organisation for Economic Co-operation and Development (OECD, 2021) and the European Commission (EC) have increasingly endorsed governments and organizations to include mental health among their top priorities in the past decade. Many European countries and higher education and research institutions are taking these concerns seriously and have been taking measures to both provide support and to put in place policies to address well being and mental health of researchers. While some countries are slowly developing policies and support infrastructures, there are others who have well established policies in place along with effective support initiatives and practices. Across Europe, under Cost-REMO Researcher Mental Health Cost Action, work is conducted related to the data based determination of well-being and mental health of researchers, identification and dissemination of best practices and raising awareness among policy makers. Particularly, the Action has built an international network of researchers from 41 European countries and several outside Europe to promote wellbeing and mental health within the research environment. The Researcher Mental Health and Well-Being Manifesto (2021) calls on stakeholders to act to foster mental health and wellbeing, reduce mental health stigma, and empower researchers to ensure well-being in their workplace. ReMO has built a network of researchers, practitioners and institutional stakeholders that support the objectives of the Manifesto through designing actions and initiatives to achieve impact at the policy, institutional, community and individual levels. As part of this work ReMO Cost Action has been coordinating a set of national briefs providing a background descriptionof the mental health and careers situation of researchers within national research environments throughout Europe to help offer critical reflections on how to leverage pan-European networks to advance dialogue on mental health and wellbeing policy across academia at all four levels identified above. With this panel discussion we aim to provide an opportunity to start the much needed conversation on policies and practices in place or lack thereof in relation to researchers’ well-being and mental health across Europe and within theEuropean Educational Research Association community. For the purposes of the panel discussion policy briefs from 4 different countries, namely Germany, Türkiye, Macedonia and Montenegro which differ from each other in significant ways will be presented to start the conversation on researcher well-being and mental health across Europe. References ILO. (2017). Mental Health in the workplace. Kismihók, G. et al. (2021). Researcher Mental Health and Well-being Manifesto. https://doi.org/10.5281/zenodo.5788557 Levecque, K., et.al. (2017). Work organization and mental health problems in PhD students. Research Policy,46(4), 868-879. https://doi.org/10.1016/j.respol.2017.02.008 OECD. (2021). Reducing the precarity of academic research careers. https://doi.org/10.1787/0f8bd468-en WHO. (2013). “Investing in mental health: evidence for action”. https://apps.who.int/iris/handle/10665/87232 Woolston, C. (2020a). Pandemic darkens postdoc’s work and career hopes. Nature, 585, 309–312. https://www.nature.com/articles/d41586-020-02548-2 Woolston, C. (2020b). Seeking an'exit plan'for leaving academia amid coronavirus worries. Nature, 583(7817), 645-647. https://www.nature.com/articles/d41586-020-02029-6 Chair Gokce Gokalp, gokcegok2@gmail.com, Middle East Technical University |
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