Conference Agenda
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09 SES 03 C JS: Quality Matters: Peer Review, Robust Evidence, and Open Data in Education - NW 09 and NW 12
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09. Assessment, Evaluation, Testing and Measurement
Paper Longitudinal Analyses in Educational Science – How Do We Get Trustworthy Results? University of Gothenburg, Sweden Presenting Author:In educational science, surveys are commonly used to investigate students’ perspectives on a range of issues. Over the past decade, however, participation rates have declined substantially, a trend that appears to be global. While attrition has long been a challenge in longitudinal research, the combination of increasing non-participation at baseline and subsequent attrition presents a more serious methodological problem that warrants closer attention. The Educational Longitudinal Database Evaluation Through Follow-up (UGU) collects data from approximately 10% of the total population of students born in a given year, corresponding to about 10,000 students assessed in Grades 6 (age 13), 9 (age 16), and 12 (age 19). The UGU database includes measures of multiple constructs, such as self-concept, interest, motivation, well-being, and cognitive ability. Within the ongoing project The impact of personal, environmental, and biopsychosocial factors in and out of school on students’ mental health and well-being: A longitudinal cohort study, we examine students’ well-being and mental health from a holistic perspective using the biopsychosocial framework (Porter, 2020). A growing body of research over the past decade indicates a decline in well-being and mental health among young people (Klapp et al., 2023; Högberg et al., 2021; National Agency for Public Health, 2025). In a recent study, we found that students born in 2004 reported lower levels of social, psychological, and cognitive well-being compared with students born in 1998 (Klapp et al., 2023). We also showed that students’ cognitive well-being defined as understanding the teacher and beliefs about one’s intellectual ability to learn was a stronger predictor of final grade point average (GPA) than measured cognitive ability based on cognitive tests. When conducting longitudinal analyses using more recent birth cohorts, it is therefore necessary to apply weighting procedures to address increasing levels of missing data. This raises an important methodological question: Are the weights and missing-data handling methods currently applied, such as full information maximum likelihood (FIML) estimation in Mplus sufficient to adequately address the growing challenges posed by non-participation and attrition? To address missing data in the survey components of the Evaluation Through Follow-Up (UGU) research database, Statistics Sweden (SCB) has developed survey weights for each wave of data collection. These weights are primarily designed for cross-sectional analyses. However, given that UGU is a longitudinal database, there is a need for methods that more adequately handle missingness and attrition across multiple waves. Although the UGU survey data are affected by both non-response and attrition, the database also contains complete register data covering the full population, with no missing values. This provides a unique opportunity to explore alternative approaches to handling longitudinal missingness. In this study, the wave-specific SCB weights are used as reference points while implementing and comparing three different imputation-based approaches that combine register data with incomplete survey data. Specifically, we generate imputed datasets using (1) full information maximum likelihood (FIML) as implemented in Mplus, (2) multiple imputation by chained equations (MICE) in R, and (3) random forest–based imputation in R. To evaluate which approach most closely aligns with the cross-sectional weighting strategy while remaining suitable for longitudinal analyses, we compare results from cross-sectional regression models across the original datasets, the weighted datasets, and the imputed datasets generated using each method. The analyses are based on nine items measuring cognitive, psychological, and social well-being, as well as one measure of cognitive ability. The study is conducted within the FEEL project, which has received ethical approval. Methodology, Methods, Research Instruments or Sources Used The analyses will be based on data from the 2004 birth cohort, who entered compulsory schooling in 2011 and completed upper secondary education in 2023. Measures include items capturing psychological well-being (e.g., “I worry about tests or homework”), cognitive well-being (e.g., “I find it difficult to keep up during lessons”), and social well-being (e.g., “How do you like your current class?”). Cognitive ability is assessed using three tests: antonyms, inductive reasoning, and spatial ability. In a first step, the original survey dataset will be compared with population-level register data on a set of background variables, including parental education and income, gender, immigration background, and academic achievement, in order to assess representativeness and patterns of non-response. Next, descriptive statistics for the well-being and cognitive ability measures will be computed using the original dataset, both with and without the application of design weights. Subsequently, six analytic models will be estimated. First, the original dataset, with and without weights, will be analysed in Mplus using the default missing data handling procedure (full information maximum likelihood; FIML). Second, the same two datasets will be analysed using multiple imputation by chained equations (MICE) implemented in R. Finally, the corresponding analyses will be conducted using random forest based imputation in R. Conclusions, Expected Outcomes or Findings Preliminary analyses comparing the original dataset with datasets weighted using weights calculated by Statistics Sweden (SCB) indicate that the weights perform reasonably well. Nevertheless, there appears to be scope for further improvement with respect to the first research question. By systematically testing different methods and integrating population-level register data, we aim to examine how missing data can be handled more effectively and to develop deeper methodological insight into the use of weights and the suitability of different approaches for different types of data. The feasibility of addressing the second research question concerning the combination of multiple weights will also be examined We expect that the findings from this study will provide methodological guidance for researchers working with large-scale datasets affected by missing data. In particular, the study addresses the broader challenge of handling missingness in longitudinal designs, an issue of growing importance in educational research. A specific focus concerns how design and survey weights can be combined in longitudinal analyses. Based on our results, we will offer practical recommendations for researchers on how to handle missing information in longitudinal data. References Hogberg B, Lindgren J, Johansson K, Strandh M, Petersen S. Consequences of school grading systems on adolescent health: evidence from a Swedish school reform. Journal of Education Policy. 2021;36(1):84-106. Klapp, T., Klapp, A., & Gustafsson, J.-E. (2023). Relations between students’ well being and academic achievement: evidence from Swedish compulsory school. European Journal of Psychology of Education. Doi: 10.1007/s10212-023-00690-9. Porter, R. J. (2020). The biopsychosocial model in mental health. Australian & New Zealand Journal of Psychiatry, 54(8), 773–774. https://doi.org/10.1177/0004867420944464 Public Health Agency of Sweden. (2018). Varför har den psykiska ohälsan ökat bland barn och unga i Sverige? Utvecklingen under perioden 1985–2014. [Why has mental illness increased among children and young people in Sweden during 1985 and 2014?]. Public Health Agency of Sweden. 09. Assessment, Evaluation, Testing and Measurement
Paper ***WITHDRAWN*** Academic Exchange or Quality Screening Mechanism? How Peer Experts Shape Review Focus and the Value of Written Reports Institute of Higher Education, East China Normal University, China, People's Republic of Presenting Author:As a quality control mechanism for scientific knowledge production, peer review has been regarded since Merton's era as an ‘institutionalised early warning system’ enabling academic communities to achieve self-regulation. Peer reviewers serve as the primary evaluators and have long been considered the ‘academic gatekeepers’ maintaining procedural correctness and outcome validity in scientific research. They play a vital role in safeguarding the autonomy of academic communities and preserving the efficacy of scholarly exchange. Within China's doctoral training framework, anonymous peer review is established as a pivotal stage in the degree conferral process, with expert opinions directly determining the acceptance of doctoral dissertations. This creates potential conflicts of interest for doctoral candidates and their supervisory groups, while also shrouding peer reviewers and their decision-making processes in mystery – an aspect that has received insufficient theoretical and empirical attention. Moreover, the reliability and necessity of peer review within the global academic knowledge production process remain subject to persistent scrutiny. A significant reason lies in the longstanding non-public nature of peer review data, which has led to insufficient understanding, inadequate oversight, and even diminished trust in the peer review process among relevant stakeholders. This explains why, in much related research, peer review is often simplistically conceptualised as a binary “accept/reject” symbol for manuscripts, while the substantive evaluative information embedded in expert opinions and the process-related information—such as written exchanges between participants—has long been overlooked. As academic gatekeepers, peer reviewers must rigorously examine their focus points in scholarly evaluation while critically assessing the practical utility of the written reports shaped by expert opinions. This study employs text classification models to analyse doctoral dissertation review reports, revealing reviewers' primary focal points and evaluative intentions. This prompts the academic community to engage in deeper reflection and critical analysis regarding the function of review comments and the role of peer reviewers. The research aims to address the following questions: (1) What aspects of the thesis do reviewers primarily focus on? (2) What evaluative intentions do reviewers seek to convey through their written comments? (3) How do these focal points and intentions shape the role of reviewers and the function of peer review? Methodology, Methods, Research Instruments or Sources Used This study employs text mining methodologies, focusing on two semantic levels reflected in review comments: expert focal points and expert review intention. It constructs a focus-intent text semantic mining framework.This study analyzed 1,500 doctoral dissertation evaluation reports from a research university in eastern China over a ten-year period. The materials underwent three stages of processing: data collection, standardization, and sentence-clause segmentation (ethical review completed).Drawing upon classical literature and manually annotated review comment datasets, the research constructed the annotated database. The study measured, trained, and evaluated expert focus points and review intention using two models: Bert-base-chinese and Chinese-roberta-wwm-ext. By integrating model loss and accuracy metrics,ultimately generating a text multi-classification model for focus and intent categorisation tasks oriented towards review comments based on the Chinese-roberta-wwm-ext model. Training results enabled automatic classification to mine and analyse the focus areas and intentions of doctoral thesis review experts. Building upon text mining, the study integrates theoretical analysis to explore the distribution patterns of reviewers' focal points and intentions. Drawing upon classical research examining reviewers' scientific ethos and their role as ‘academic gatekeepers,’ it systematically analyses how these focal points and intentions shape the contemporary role of reviewers and the function of peer review. Conclusions, Expected Outcomes or Findings Doctoral thesis reviews serve not only as a vital means of academic assessment but also as a pivotal stage in scholarly exchange and knowledge creation. Research indicates that reviewers prioritise examining the thesis's theoretical components—specifically scrutinising the research question, theoretical foundationhs, and research hypotheses—before addressing presentation and formatting. This finding underscores peer review's core function in validating a thesis's scientific merit while revealing potential shortcomings in the current system's assessment of innovation. Regarding review intent, directive intentions (such as I-EM [modify presentation/format] and I-CL [request elaboration]) dominate overwhelmingly, whereas non-directive intentions (such as evaluative or summarising comments) constitute an extremely low proportion. Reviewers are primarily assigned an “editorial” rather than an “innovation-facilitating” role. This role positioning reinforces academic conservatism to some extent, potentially leading to the neglect of “non-traditional” scholarly contributions. Furthermore, the singularity of the expert role may hinder the integration of academic freedom and diverse perspectives, thereby constraining the space for scholarly innovation. In summary, the function of doctoral thesis review comments extends beyond quality control; they should serve as tools to foster academic growth and innovation. Reviewers must proactively guide thesis innovation through critical analysis, transcending the limitations of singular normative frameworks to promote the integration of diverse interdisciplinary perspectives and modes of thinking. References Luo, J., Feliciani, T., Reinhart, M., Hartstein, J., Das, V., Alabi, O., & Shankar, K. (2021). Analyzing sentiments in peer review reports: Evidence from two science funding agencies. Quantitative Science Studies, 2(4), 1271–1295. Smith, D. S., Kennard, N. N., Du, T., & McFarland, D. A. (2025). How values and uncertainty shape scientific advance in peer review. American Sociological Review, 90(5), 879–915.Mahoney, M. J. (1977). Publication prejudices: An experimental study of confirmatory bias in the peer review system. Cognitive Therapy and Research, 1(2), 161–175.Morley, L., Leonard, D., & David, M. (2002). Variations in vivas: Quality and equality in British PhD assessments. Studies in Higher Education, 27(3), 263–273.Mullins, G., & Kiley, M. (2002). It's a PhD, not a Nobel Prize: How experienced examiners assess research theses. Studies in Higher Education, 27(4), 369–386.Nelson, H. (1991). The gatekeepers: Examining the examiners. Bulletin (Australian Historical Association), 68, 12–27.Lamont, M. (2012). Toward a comparative sociology of valuation and evaluation. Annual Review of Sociology, 38, 201–221. Lamont, M., Mallard, G., & Guetzkow, J. (2009). Fairness as appropriateness: Negotiating epistemological differences in peer review. Science, Technology, & Human Values, 34(5), 573–606. 09. Assessment, Evaluation, Testing and Measurement
Paper The Open Data Format: Facilitating Cross-Platform Data Sharing in Educational Science DIPF | Leibniz Institute for Research and Innovation in Education, Germany Presenting Author:Research data management has become increasingly important in educational research, driven by the Open Science movement and the widespread adoption of FAIR (Findable, Accessible, Interoperable, and Reusable) data principles (Wilkinson et al., 2016). Despite growing recognition of the importance of open data sharing, significant barriers persist in accessing FAIR data in the educational field (Bayer et al., 2023). One fundamental challenge concerns the technical interoperability of data formats across different statistical software platforms. Researchers in the social and educational sciences use various software for statistical analysis, including SPSS, Stata, R, SAS, and Python. Each software has proprietary data formats that are only partially compatible, with other solutions. This non-interoperability undermines FAIR principles and creates obstacles to replication studies and data reuse. To meet diverse user needs, data producers must offer multiple formats through redundant work that is error-prone and costly. Moreover, researchers frequently struggle to find suitable data for secondary analysis, with many reporting difficulties related to data compatibility and accessibility (Bayer et al., 2022). The Open Data Format (ODF) represents a promising solution to these interoperability challenges (Han et al, 2024). Developed through the KonsortSWD consortium within Germany's National Research Data Infrastructure (NFDI), ODF is a non-proprietary, multilingual, metadata-enriched, and zip-compressed data format explicitly designed to meet FAIR principles. The format consists of a CSV file containing the raw data, an XML metadata file structured according to the DDI Codebook standard (Vardigan et al., 2008), and a version file, all packaged in a standardized archive. Import and export packages are currently available for R, Python, and Stata, enabling seamless data exchange across these platforms. This contribution examines the practical implementation of ODF in the context of national education monitoring in Germany. As part of the ShaReD (Sharing and Reusing Data) cooperation at DIPF | Leibniz Institute for Research and Information in Education, data used in national education reporting is prepared for publication by the end of 2026. These data, drawn from various sources including survey data, administrative data from educational institutions, and official documents, form the empirical foundation for system monitoring and educational governance. The decision to publish these monitoring data in ODF format provides an opportunity to reflect on the format's advantages and limitations in real-world application. Methodology, Methods, Research Instruments or Sources Used This contribution combines practical experience from data curation work with conceptual reflection on data format interoperability. Within the ShaReD cooperation, data from various sources used in German national education monitoring are collected and harmonized, applying specific selection criteria: availability of time series data and representativeness for the German education system. These data will be published in a unified, stringent format by the end of 2026, with ODF selected as the format of choice. The paper reflects critically on this format decision through several dimensions: First, we examine the rationale for selecting ODF, considering both technical and community-oriented factors. Second, we analyze the advantages ODF offers for FAIR data sharing, including enhanced metadata documentation, cross-platform compatibility, and non-proprietary accessibility. Third, we discuss limitations and implementation challenges, framing these as important caveats for the research community. Finally, we aim to disseminate knowledge about this emerging format to contribute to its adoption and, potentially, its further development. The analysis draws on documentation from the ODF project (Han et al., 2024), practical experiences from data preparation work, and literature on FAIR data principles and research data infrastructure in education. Conclusions, Expected Outcomes or Findings The Open Data Format represents a promising approach to increasing interoperability in educational research data management. By providing a non-proprietary, standardized format with rich metadata capabilities, ODF addresses key technical barriers to data reuse while supporting FAIR principles. The format's alignment with DDI standards and its inclusion of comprehensive metadata facilitate cross-platform reuse of education data. However, important limitations must be acknowledged. Currently, ODF packages are implemented only for R, Python, and Stata. Users of SPSS and SAS – software platforms still widely used in educational research – cannot directly work with ODF files without conversion. This partial coverage may limit initial adoption and create new interoperability challenges for some research communities. The practical application of ODF in German national education monitoring data provides valuable insights into the format's real-world usability. As research data infrastructures continue developing within NFDI and similar initiatives, standardized formats like ODF could play a crucial role in enabling cumulative, collaborative research across diverse educational contexts. Future work should focus on expanding software support, documenting best practices for ODF implementation, and engaging research communities in format development to ensure broad accessibility and adoption. References Bayer, S., Blask, K., Gnambs, T., Jansen, M., Maehler, D. B., Meyermann, A., & Neuendorf, C. (2023). Data for Psychological Research in the Educational Field: Spotlights, Data Infrastructures, and Findings from Research. Journal of Open Psychology Data, 11(1), 1–9. https://doi.org/10.5334/jopd.105 Bayer, S., Loesch, T., & Hasche, G. (2022). Reusing research data: Researchers' perspectives on potentials and challenges [Conference presentation]. European Conference on Educational Research, Yerevan, Armenia. https://osf.io/zp436 Han, X., Hartl, T., & Wenzig, K. (2024). Introducing Open Data Format: A platform-independent, non-proprietary, metadata-enriched, multilingual data format and its implementation in R and Stata (Working Paper No. 202410). Zenodo. https://doi.org/10.5281/zenodo.14215268 Vardigan, M., Heus, P., & Thomas, W. (2008). Data Documentation Initiative: Toward a standard for the social sciences. International Journal of Digital Curation, 3(1), 107–113. https://doi.org/10.2218/ijdc.v3i1.45 Wilkinson, M. D., Dumontier, M., Aalbersberg, I. J., et al. (2016). The FAIR Guiding Principles for scientific data management and stewardship. Scientific Data, 3, 160018. https://doi.org/10.1038/sdata.2016.18 09. Assessment, Evaluation, Testing and Measurement
Paper From Mapping to Infrastructure: Enhancing the Reusability of Longitudinal Education Data Across Europe Fondazione per la Scuola, Italy Presenting Author:Longitudinal research data are fundamental to advancing educational research, yet their structure, accessibility, and reusability vary widely across countries and institutional settings, with profound implications for researchers’ capacity to conduct longitudinal and comparative studies (Pavolini et al., 2025). The Horizon Europe project LINEup (Longitudinal Data for INequalities in Education) addresses this challenge by providing the first systematic mapping of national and regional longitudinal datasets on student learning outcomes in primary and secondary education (ISCED 1–3) across Europe. The mapping identifies what longitudinal data exist, where they are located, how they are documented, and to what extent they can be reused for research on educational inequalities. Existing literature shows that educational inequalities emerge early and persist across key transitions, shaped by institutional arrangements and contextual conditions (Sirin, 2005; Van de Werfhorst & Mijs, 2010; Jackson & Jonsson, 2013; Chmielewski, 2019) - a pattern confirmed by recent reviews of longitudinal studies in Europe (Campos et al., 2025; Kampylis et al., 2024; Symonds et al., 2025). Understanding these dynamics requires evidence capable of tracing how gaps develop and evolve over time (Gangl, 2010; Skopek & Passaretta, 2021). Yet longitudinal data in Europe remain unevenly available, inconsistently documented, and difficult to access. The study adopts a conceptual understanding of data as socio-technical objects: their analytical value depends not only on content but also on infrastructures, documentation practices, governance models, and access conditions (Leonelli, 2020). Drawing on Open Science principles, the project examines how metadata quality, management structures, and transparency shape research possibilities. Despite growing demand for stronger longitudinal evidence, researchers still face barriers related to insufficient documentation, heterogeneous variable definitions, lack of harmonisation, opaque access procedures, and uneven integration of administrative data - constraints that hinder the analysis of how inequalities in education arise, widen, or narrow over time. Recent scholarship on open research data underscores the need for transparent documentation, interoperable metadata standards, and governance frameworks that enable data reuse (Borgman, 2015; Leonelli, 2020; Wilkinson et al., 2016). Yet in education, progress remains uneven. The LINEup project contributes to this debate by offering an empirically grounded model for structuring metadata to enhance comparability, support harmonisation, and enable researchers to assess datasets’ analytical potential. We developed a shared identification and documentation protocol applied across 32 European countries (EU Member States, EEA associated countries, Switzerland, and the United Kingdom), resulting in a systematic analysis of 103 longitudinal datasets meeting strict inclusion criteria. The mapping reveals substantial variation in dataset quality, periodicity, sample size, measurement comparability, socio-demographic coverage, linkage possibilities, and access openness. The findings depict a fragmented landscape: some countries maintain well-established infrastructures, while others display discontinuities, limited documentation, or restricted access. Building on this empirical work, the paper introduces the LINEup Education Data Explorer, an open, user-oriented digital infrastructure designed to enhance the findability, transparency, and reusability of longitudinal educational datasets. The Explorer consolidates country- and dataset-level metadata, documentation links, classification variables, and access procedures into a searchable platform grounded in FAIR principles. It aims to lower entry barriers for researchers and educational stakeholders, increase the visibility of existing data sources, and support cross-country research. By transforming a static mapping into a dynamic infrastructure, the Explorer provides a replicable model for data documentation and reuse in educational research. It enables comparative insights into European data ecosystems, supports reflections on harmonisation feasibility, and offers a practical tool for planning future longitudinal data collections. Methodology, Methods, Research Instruments or Sources Used The study adopts a multi-stage research design integrating systematic data mapping, metadata analysis, and digital infrastructure development. This approach reflects the project dual nature: it is both an investigation of longitudinal datasets and an exercise in building shared infrastructure that enhances the transparency, comparability, and reusability of educational data across Europe. The methodological strategy unfolds across three components: 1. Mapping methodology – The mapping followed a multi-step procedure combining three evidence sources: a systematic literature review, an expert questionnaire, and web searches. The review (Kampylis et al., 2024) identified 77 datasets, 43 meeting the inclusion criteria. The questionnaire gathered 193 responses from scholars across 28 countries and identified 70 datasets. Desk research conducted by partners, complemented by exchanges with Horizon Europe projects, provided 116 datasets, bringing the total to 229. Each dataset was assessed against common criteria: longitudinal or repeated cross-sectional design; ISCED 1–3 coverage; presence of learning outcomes; national or regional representativeness; and at least one wave after 2014. Eligible datasets were documented using a standardised form capturing structural characteristics, variables, linkage possibilities, and access conditions. A multi-layer validation protocol – internal checks, partner cross-review, and final consistency assessment – ensured comparability. Through this process, 103 datasets met all criteria and were retained. 2. Analytical framework – Dataset characteristics were analysed along five dimensions: • How: longitudinal architecture (design type, continuity, periodicity, unit of analysis). • What: information collected, including learning outcomes and student, household, teacher, and school variables. • Where: geographical scope and representativeness. • When: temporal depth, number of waves, educational stages. • Access: microdata openness, documentation quality, and linkability. This framework enabled systematic cross-country comparison of documentation quality, measurement coherence, socio-demographic coverage, temporal structure, and access conditions. It also supported the identification of structural gaps and complements the classification scheme developed in the validation phase. 3. Development of the Education Data Explorer – The Explorer was developed as a lightweight, extensible and open-access digital infrastructure integrating metadata from the mapping. The process followed iterative, user-centred design principles. Metadata were harmonised through controlled vocabularies and classification categories, supporting three information layers: dataset overviews, analytical dimensions, and variable-level metadata. Interface prototyping and testing informed improvements in navigation and usability. Search and filtering functions were developed to address different user needs, while the beta version incorporates mechanisms for refinement. The platform does not host microdata but provides access information and directs users to official sources, thereby supporting responsible reuse Conclusions, Expected Outcomes or Findings The study shows that the landscape of longitudinal educational data in Europe is simultaneously rich and uneven, characterised by substantial variation in documentation practices, accessibility conditions, and contextual and socio-demographic coverage. The systematic identification and validation of 103 datasets reveal both promising infrastructures - often supported by long-standing administrative systems - and persistent gaps, particularly in countries where data collections are discontinuous, poorly documented, or inaccessible to external researchers. These asymmetries shape what kinds of questions can be asked, which inequalities can be studied, and how robustly comparative analyses can be carried out. By translating the mapping results into an open and continuously evolving digital platform, the LINEup Education Data Explorer addresses a critical barrier to cumulative scientific knowledge: the difficulty of locating, comparing, accessing, and evaluating longitudinal datasets. The Explorer functions as a FAIR-oriented environment that lowers the transaction costs of dataset discovery, clarifies access conditions, and enables researchers to assess the suitability of different data sources for longitudinal designs. At the same time, it makes visible the structural limitations that constrain research - whether due to inconsistent documentation, restricted accessibility, or insufficient contextual variables - thereby providing actionable insights for policymakers and data owners. The findings underscore the importance of investing in interoperable metadata standards, transparent governance frameworks, and long-term data infrastructures capable of supporting equity-oriented research. Enhanced documentation and open infrastructures do not replace the need for high-quality microdata, but they significantly expand the conditions under which existing data can be reused, combined, and analysed. More broadly, the study illustrates how Open Science principles can be operationalised in education research through practical tools that reinforce transparency, comparability, and researcher autonomy. By integrating methodological rigour with infrastructural innovation, LINEup contributes to a more coherent European data ecosystem and strengthens the foundations for robust, cross-country research on educational inequalities. References Borgman, C. L. (2015). Big data, little data, no data: Scholarship in the networked world. MIT Press. Campos, D. G., Koskinen, A., Munkácsy, B., Rolfe, V., Patsis, P., Tóth, E., Olsen, R. V., Scherer, R., Söldner, L., Danek, A. H., Greiff, S., & Vainikainen, M-P. (2025). Educational inequalities in Europe: A scoping review of longitudinal studies in K-12 education. Studies in Educational Evaluation, 87, 101523. Chmielewski, A. K. (2019). The global increase in the socioeconomic achievement gap, 1964–2015. American Sociological Review, 84(3), 517–544. Gangl, M. (2010). Causal inference in sociological research. Annual Review of Sociology, 36, 21–47. Jackson, M., & Jonsson, J. O. (2013). Why does inequality of educational opportunity vary across countries? In M. Jackson (Ed.), Determined to succeed? Performance versus choice in educational attainment (pp. 306–337). Stanford University Press. Kampylis, P., Fragkiadaki Theodoroulea M., Kandila, M., Cholezas, I., Mobilio, V., Sampson, D., Lievore, I., Mauro, V., Gunzelmann, S., Lanoë, M., Maurya, P., Moulin, L., Ortiz, L., Passaretta, G., & Moreira, P. (2024). Tracing Educational Inequalities in Primary and Secondary Schools - Insights from a Systematic Review of Longitudinal and Repeated Cross-sectional Studies. LINEup Project - Deliverable 2.1. Leonelli, S. (2020). Data governance is key to interpretation: Reconciling data access and use for FAIR data. Data Intelligence, 2(1–2), 1–9. LINEup Consortium (2026). LINEup Education Data Explorer [Online platform]. CC BY. https://www.lineup-project.eu/map/ Pavolini E., Argentin G., Mobilio V., Lievore I., Kochergina E., Zanga G. (2025). Mapping Longitudinal Datasets on Educational Inequalities in Primary and Secondary Education: Research Findings and Implications. Deliverable D3.1, Horizon Europe Project LINEup. Symonds, J. E., Chzhen, Y., Kaye, N., Dominy, J., Campbell, C., Sykes, C., Ba,Baştuğ, S. I., Fiasconaro, S., & Heydari Barardehi, I. (2025). A Metareview of Research on Educational Inequality and Socioeconomic Disadvantage. Education Sciences, 15(6), 740. Sirin, S. R. (2005). Socioeconomic status and academic achievement: A meta-analytic review of research. Review of Educational Research, 75(3), 417–453. Skopek, J., & Passaretta, G. (2021). Socioeconomic inequality in student achievement: The role of parents’ economic, cultural, and social capital. Sociology of Education, 94(2), 91–117. Van de Werfhorst, H. G., & Mijs, J. J. B. (2010). Achievement inequality and the institutional structure of educational systems: A comparative perspective. Annual Review of Sociology, 36, 407–428. Wilkinson, M. D., Dumontier, M., Aalbersberg, I. J., Appleton, G., Axton, M., Baak, A., ... Mons, B. (2016). The FAIR Guiding Principles for scientific data management and stewardship. Scientific Data, 3, Article 160018. | ||
