Leibniz Research Initiative Digital Education

Data- based, digital teaching and learning

The research initiative “Digital Education - Data-supported, digital teaching and learning” is an interdisciplinary association of colleagues from the fields of didactics, psychology, educational science and computer science at Leibniz University Hannover. Together, we pursue the goal of using and researching modern and, in particular, AI-based data analysis methods for teaching and learning.

 

Researchers, faculties and institutions

The research initiative brings together science educators and computer scientists from three faculties (Faculty of Natural Sciences, Faculty of Mathematics and Physics, Faculty of Electrical Engineering and Computer Science), the L3S Research Center and the Technical Information Library (TIB).

Associate members

Faculty of Electrical Engineering and Computer Science

Faculty of Mathematics and Physics

Faculty of Natural Sciences

Faculty of Humanities

Research objectives

Against the background of the high innovation potential of digital support for scientific learning processes and the possibilities of learning analytics and machine learning, the aim of the “Digital Education” research initiative is to investigate how learning can be digitally supported by integrating and further developing modern data analysis methods.

The focus is on learning in formal, i.e. school and university contexts and in informal contexts, as well as the corresponding innovation of technical processes.

The combination of subject-specific didactic expertise in the evaluation and design of learning processes with computer science expertise in the automated and intelligent analysis of data opens up new fields of research with high social relevance.

Research focus

Current work of the Digital Education research initiative is being implemented among others within the framework of the LernMINT research training group.

Details on the main research areas

  • Initiating and investigating digitally based learning processes in the nat-ural sciences

    Formal teaching and learning processes in school and university science education are accompanied by digital media in various ways. Learning processes in the natural sciences are characterized by the construction of subject-specific ideas taking into account existing prior experience, the examination of natural phenomena in observations and experiments and the orientation towards competencies in the sense of subject-specific problem-solving skills. The hitherto largely untapped potential to support learning through the automated diagnosis of individual learning potential and learning processes and to accompany them in the sense of formative assessment opens up new opportunities to develop individualized, data-based formats for heterogeneous or inclusive learning groups and to research their effects. Against this background, the central objectives are to develop basic support options for learners and teachers and to develop new forms of digitally supported learning.

  • Designing teaching-learning settings with robotics, augmented and vir-tual reality

    Concepts and concrete, exemplary implementations for the use of digital media are developed as part of this focus area. The focus here is on school settings on the one hand and university courses with comparatively large learning cohorts on the other. Due to current technological developments, concepts will be developed that use virtual reality and augmented reality technologies (VR and AR technologies), for example, and integrate motivating learning media (e.g. robots, embedded systems). Students on teacher training courses as well as general and vocational schools are involved in the individual activities in order to ensure the evaluation of the concepts and to use and discuss the research results directly with current and future teachers. In the area of collaborative learning platforms, concepts based on the LearnWeb infrastructure developed at L3S are being developed and evaluated, including in the context of teacher training at various universities and the Applied Machine Learning Academy in Hanover. Although the current focus is on subject-specific didactic research within electrical engineering and computer science, the feasibility of the concepts in other STEM fields within and outside the research initiative is particularly welcome.

  • Learning analytics and recommendations

    The aim of this focus area is to investigate relevant factors (recommendations) that are either prerequisites or conducive factors for successful digitally supported learning processes and the further development of methods from data mining and learning analytics for the diagnosis and design of scientific learning processes. To this end, the extent to which the integration of certain digital methods can generate added value and risks for learning processes is being researched. In this way, analytical desiderata or sensible adaptations and further developments can be described, e.g. with regard to comparatively “small” learning groups or the quality of individual diagnoses. For example, the extent to which machine learning methods are helpful for the recommendation and structuring of media learning opportunities or whether the analysis of search behavior as part of learning processes (search as learning) can support them will be investigated. By analyzing the digitally generated data and supplementary learning success analyses, the information technology and didactic perspectives are included. This interdisciplinary approach makes it possible to identify the conditions for success and design requirements for educational programs in different settings.

  • Transparency and security in handling digital data

    In order to enable targeted research and implementation of data-supported teaching and learning, it is essential that the data collected is handled responsibly and ethically. Approaches such as “trusted learning analytics” (e.g. work by Prof. Dr. Hendrik Drachsler) lay an important foundation for the responsible and reliable use of learning analytics. This addresses, for example, aspects of transparent data handling and corresponding open communication as well as the involvement and consent of all persons involved. Investigating the convictions and ethical judgments of people in the various target groups and developing trust-building concepts based on these form the basis for wider use in different contexts and at different ages. Guaranteeing security and privacy plays a key role here. The aim is to develop transparent procedures for the analysis of learning behavior and the design of a data-driven concept for higher education didactics. This addresses both personal and structural conditions specific to individual departments and universities.     

Publications by the research initiative

Showing results 1 - 10 out of 22

Nehring, A., Kresin, S., Kremer, K. H., & Büssing, A. G. (2025). Students' awareness and conceptions of science-related communication mechanisms on social media. Journal of Research in Science Teaching, 62(3), 756-791. https://doi.org/10.1002/tea.21973
Heinitz, B., & Nehring, A. (2024). Virtuelle Unterrichtshospitationen im Chemieunterricht: Eine Vernetzung der ersten und zweiten Phase der Lehrkräftebildung. MNU - Der mathematische und naturwissenschaftliche Unterricht, 2024(3), 182-190.
Roski, M., Ewerth, R., Hoppe, A., & Nehring, A. (2024). Exploring Data Mining in Chemistry Education: Building a Web-Based Learning Platform for Learning Analytics. Journal of Chemical Education, 101(3), 930-940. https://doi.org/10.1021/acs.jchemed.3c00794
Roski, M., Jagan Sebastian, R., Ewerth, R., Hoppe, A., & Nehring, A. (2024). Learning analytics and the Universal Design for Learning (UDL): A clustering approach. Computers & education, 214, Article 105028. https://doi.org/10.1016/j.compedu.2024.105028
Rosner, A., Brändli, F., & von Helversen, B. (2024). Eye movements as a tool to investigate exemplar retrieval in judgments. Judgment and Decision Making, 19, 1-29. Article e8. https://doi.org/10.1017/jdm.2024.3
Büssing, A. G., Gebert, T., & Meier, M. (2023). Immersive virtuelle Realität im Biologieunterricht: Grundlagen zu virtuellen Naturerlebnissen in 360°. Unterricht Biologie, 47(487), 46-47. https://www.friedrich-verlag.de/friedrich-plus/sekundarstufe/biologie/methoden-konzepte/immersive-virtuelle-realitat-im-biologieunterricht-16129
Roski, M., Jagan Sebastian, R., Ewerth, R., Hoppe, A., & Nehring, A. (2023). Dropout Prediction in a Web Environment Based on Universal Design for Learning. In N. Wang, G. Rebolledo-Mendez, N. Matsuda, O. C. Santos, & V. Dimitrova (Eds.), Artificial Intelligence in Education - 24th International Conference, AIED 2023, Proceedings: 24th International Conference, AIED 2023, Tokyo, Japan, July 3–7, 2023, Proceedings (pp. 515–527). (Lecture Notes in Computer Science (including subseries Lecture Notes in Artificial Intelligence and Lecture Notes in Bioinformatics); Vol. 13916 LNAI). Springer, Cham. https://doi.org/10.1007/978-3-031-36272-9_42
Roski, M., & Nehring, A. (2023). Ich sehe was, was du nicht siehst. didacta Digital - Aktuelles rund ums Lehren & Lernen mit neuen Technologien, 12-15. https://avr-emags.de/emags/didactaDIGITAL/didactaDIGITAL_0223/#14
Stanja, J., Gritz, W., Krugel, J., Hoppe, A., & Dannemann, S. (2023). Formative assessment strategies for students' conceptions—The potential of learning analytics. British Journal of Educational Technology, 54(1), 58-75. https://doi.org/10.1111/bjet.13288, https://doi.org/10.15488/13652
Upadhyaya, A., Pfeiffer, C., Astappiev, O., Marenzi, I., Lenzer, S., Nehring, A., & Fisichella, M. (2023). How Learnweb Can Support Science Education Research on Climate Change in Social Media. In M. Temperini, V. Scarano, I. Marenzi, M. Kravcik, E. Popescu, R. Lanzilotti, R. Gennari, F. De La Prieta, T. Di Mascio, & P. Vittorini (Eds.), Methodologies and Intelligent Systems for Technology Enhanced Learning, 12th International Conference (pp. 149-154). (Lecture Notes in Networks and Systems; Vol. 580 LNNS). transcript Verlag. https://doi.org/10.1007/978-3-031-20617-7_19

Speaker research initiative

Prof. Dr. Andreas Nehring
Address
Am Kleinen Felde 30
30167 Hannover
Building
Room
322
Prof. Dr. Andreas Nehring
Address
Am Kleinen Felde 30
30167 Hannover
Building
Room
322