Enacted Science And Mathematics Education Through Astronomy
ESMEA is a research project coordinated by LDAR, that focuses on an embodied teaching method using a “Human Orrery”. Through the attractiveness of astronomy for both boys and girls and the innovative potential of enaction, the Human Orrery allows learners to enhance their scientific knowledge (physics and mathematics) and their scientific awareness as citizens, two main aspects of SWAFS (Science With And For Society).
More information about the Human Orrery (in french) may be found on this page
An Orrery is a mechanical device illustrating the circular orbits of the planets. On a human Orrery, the orbits of planets and comets are drawn at a human scale allowing movements in the Solar System to be enacted by the learners. Both constructing and using a Human Orrery promote an embodied and interdisciplinary (STEM) approach of scientific notions usually perceived as abstract concepts by students and teachers. Astronomy provides a highly motivating context for learners to develop observational skills, discover methods of scientific enquiry, and explore some of the fundamental laws of physics and concepts of mathematics in both an attractive and meaningful way.
Theoretical background and methods
At the heart of research is the question of how learners’ conceptions are transformed to increasingly approximate conceptions shared by scientists. Our expertise in science and mathematics education will be used to design learning sequences that account for known conceptual obstacles to this transformation. We will refer to the Activity Theory as developed currently in mathematics education to study those sequences.
Our ambition is to serve the co-emergence of a coherent theoretical approach of enaction in mathematics and science education. Indeed, the use of a Human Orrery in education is based on the assumption that bodily perceptions help the learning of abstract concepts. Cognitive science theory of enaction as well as science and mathematics education research provide theoretical foundations and empirical results to this claim, by showing the role of gestures, signs, as well as that of artefacts, in learning processes, leading to speak of “multimodal learning”.
In a broader perspective, our approach intends to make the learning process more engaged and meaningful, and to promote an equity among scientific, literary and artistic disciplines. Those topics are related to the notions of gender on one side and of awareness and motivation on the other side. We will examine the relationship between learning environments and students’ creative performances, as well as its correlations with motivation
The French consortium includes 4 laboratories:
LDAR, CY Cergy Paris Université (coordinator)
LERMA, CY Cergy Paris Université
CLIMAS/Bodies and environments, Université de Bordeaux
EMA, CY Cergy Paris Université
ESMEA has the ambition to create an international network. We have led an Erasmus project ARISTARCHUS with partners in Germany, Cyprus and Greece. We have established collaborations at different level with individual researchers or institutions :
University of Turin (research team led by C. Sabena) in the context of an Emergence project funded by CY Cergy Paris University
Pr Abrahamson (EDRL / Berkeley School of Education) has been invited for a 2 months visit in June 2023
N. Perrin (Haute Ecole Pédagogique, Lausanne, Suisse),
L. Radford (École des sciences de l'éducation de l'Université Laurentienne, Sudbury, Ontario, Canada)
Cergy Paris University funded ESMEA as an "Emergence" project from 2021 to 2023. E-ESMEA investigates how learning emerges from students' embodied experience on a Human Orrery. In this context, we invited Dor Abrahamson for a two weeks' visit to observe and discuss the use of the Human Orrery. E-ESMEA will be concluded by an international symposium on 5 to 7th of December, 2023 (https://embodiment-steam.sciencesconf.org/)
Dernières publications du groupe ESMEA (retrouvez la liste complète ici)
Rollinde, E., Clément Maisch. (2023). Les orbites planétaires sont-elles circulaires. Grand N. 111, pp.5-39
Abboud, M., Nechache, A., Rollinde, E. (2023). L’astronomie dans la formation des enseignants du premier degre : un contexte interdisciplinaire pour favoriser les enseignements en mathématiques et en sciences, Annales de Didactiques et de Sciences Cognitives, pp.205-211, 2022, 978-2-86612-403-8
Rollinde, E., Nechache, A., Abboud, M. (2022). Etude du travail géométrique autour des ellipses avec le planétaire humain. Septième Symposium d'Etude sur le Travail Mathématique, ETM7, 27 juin-2 juillet 2022, Strasbourg (France).
Rollinde, E.. Vivre les Corps célestes avec le Corps Apprenant.(2022). Presses de l'Université Laval. Engager le corps pour enseigner et apprendre. Diversité de perspectives, Presses de l'Université Laval, 2022. https://hal.science/hal-03787108 (article disponible sur demande)
Maha Abboud,Rollinde, E., (2021). Les Mathématiques du Système Solaire en plein air. Le planétaire humain au collège, Repères-IREM, 2021, 124, p37-62, https://hal.archives-ouvertes.fr/hal-03293334/document
Rollinde, E., Décamp, N., Derniaux, C. (2021). Should frames of reference be enacted in astronomy instruction?. Physical Review Physics Education Research, 2021, 17 (1), 〈10.1103/PhysRevPhysEducRes.17.013105〉. 〈hal-03252842〉
From 10th to 12th of January, the ESMEA partners met in Paris to define the objectives, methodology and impact of the project. The first phase of the H2020 proposal was submitted the 3rd of April 2019.
Dr. Mina C. Johnson-Glenberg from Arizona State University and the Embodied Games Lab visited the LDAR/UCP for a lecture series in October. She brought with her the Magic Leap headset to demonstrate Augmented Reality (AR). Using the topic of the Human Orrery, the images and positions of where the planets were on October 5, 2019 were superimposed wherever the viewer was standing. Dennis Bonilla from Baltu Studio in Arizona built the content as a Beta on the Magic Leap for the ESMEA project. This was a powerful demonstration of the sorts of “a-ha” moments that AR affords learners. As the learners walk around the orbits of the planets on marked pathways and experience that physically, they can also see, digitally, where the planets are in relation to the sun at that exact moment in time.