Students often learn about climate change, solar energy, and heat transfer through theoretical explanations and textbook examples. However, many of these processes are invisible and difficult to understand because heat radiation cannot be directly seen with the human eye.
Thermo Map was created to help students visualize and investigate these hidden processes through thermal imaging technology. The aim was to transform abstract physics concepts into real-life experiences and encourage students to explore their own environment as young researchers.
By using a thermal camera, students can observe how different materials and surfaces respond to solar energy. They investigate questions such as why some surfaces heat up faster than others, how materials store and release heat, and how these differences are connected to energy efficiency and climate change.
The innovation was created to promote scientific curiosity, environmental awareness, and digital skills. It connects physics with climate education and allows students to collect real data, analyse evidence, and develop a deeper understanding of the impact of human environments on thermal conditions.
In practice, Thermo Map is a student-led STEM investigation using a thermal camera to explore temperature differences in everyday environments.
Students work as researchers: they select objects and surfaces, collect thermal images, compare temperature patterns, and discuss why different materials absorb and release solar energy differently. Examples include grass surfaces, metal car parts exposed to sunlight, and various materials found in the school environment.
During the activities, students learn about infrared radiation, heat transfer, energy absorption, and the connection between materials and climate-related challenges. They interpret thermal images, organize observations, and create thermal maps that present their findings.
The project can be adapted to different age groups and learning contexts. It combines physics, digital technologies, environmental education, and data analysis, making learning more visual, interactive, and connected to real-world problems.
Thermo Map has been shared through educational networks, STEM activities, and collaboration with teachers interested in innovative approaches to science education.
The project has been presented as an example of how digital technologies can support inquiry-based learning and climate education. Through school activities and teacher communities, the idea of using thermal imaging to explore environmental phenomena has reached other educators who are interested in connecting physics, technology, and sustainability.
The innovation is designed to be easily adapted to different educational contexts because the main concept does not depend on one specific lesson or curriculum. Teachers can use thermal cameras to investigate their own surroundings and connect observations with local environmental questions.
The project continues to grow through sharing experiences, student results, and examples of classroom implementation with the educational community.
The innovation has evolved from a physics-focused activity into a broader interdisciplinary STEM learning experience.
Initially, the project focused on observing temperature differences and understanding infrared radiation. Over time, additional elements were introduced, including connections with climate change, energy efficiency, environmental awareness, and data analysis.
The activities were expanded to encourage students not only to observe thermal images but also to ask research questions, collect evidence, interpret results, and communicate their findings.
Future development includes adapting the activities for different age groups and exploring new possibilities for connecting thermal imaging with sustainability topics and real-world environmental challenges.
To try Thermo Map, teachers need access to a thermal camera or another infrared imaging device and a learning environment where students can investigate different materials and surfaces.
Start by introducing students to the basic idea of infrared radiation and thermal imaging. Then ask students to explore their surroundings by measuring and comparing the temperature patterns of different objects, such as natural surfaces, building materials, or objects exposed to sunlight.
Students can record observations, analyse thermal images, discuss the reasons behind temperature differences, and create their own thermal maps.
The activity can be adapted to different subjects, including Physics, STEM, Environmental Science, Mathematics, and Technology. The key element is encouraging students to investigate real-world questions using scientific evidence.
