MOMSTER: a mobile radio meteor detection kit for STEAM learning linked to citizen science

Abstract

Despite growing recognition of the value of integrated STEM approaches in education, truly hands-on, inquiry-driven experiences remain rare in secondary schools. Meteor science offers a compelling opportunity to bridge disciplines such as physics, geography, engineering and mathematics through real-world investigation. This paper describes the development and classroom integration of MOMSTER, a mobile meteor detection kit designed to bring real scientific practice to secondary education. The kit enables students to detect and analyse actual meteor events using radio techniques, fostering inquiry-based learning through direct engagement with live data.

Although the data collected with MOMSTER kits are not research-grade, the project is structurally linked to the Radio Meteor Zoo (RMZ), where students can optionally classify calibrated meteor detections as part of an ongoing citizen science initiative. This modular setup connects education with research: MOMSTER serves as a hands-on entry point, while RMZ provides a channel for contributing to ongoing science.

Early classroom use in Belgian secondary schools showed that giving students tools to detect meteors and direct access to live observations sparked enthusiasm and deeper engagement with science. Teacher autonomy proved critical to success: technical adaptations, including pre-configured laptops and simplified data handling, made the system accessible without specialist knowledge. Modular educational resources enabled flexible integration across STEM subjects, reaching a wide range of learners, and addressing common misconceptions about meteors and radio detection. As a bonus, the introduction of the methodology of radio meteor observations substantially broadened the range of STEM subjects tackled in the accompanying educational resources, reducing an often observed under-representation of mathematics in integrated STEM projects.

This work contributes to educational research on the integration of real-world science into formal learning environments. It shows how inquiry-based projects, when structurally linked to citizen science platforms, can support authentic engagement, curricular relevance, and public participation in science. Its novelty lies in combining real-time radio meteor observations with modular classroom materials and a structural link to a citizen science platform, providing a hybrid model rarely available in secondary STEM education.