Code and Protect

Coding a Sustainable Future: Empowering Young Minds to Protect Our Planet.

Code and Protect: Science and Environment Programme” integrates environmental education with STEAM and robotics to bridge the gap between awareness and action. Grounded in the SDGs, it engages students in real-world problem solving through inquiry and hands-on learning, fostering critical thinking, creativity, and empowering them to become responsible global citizens.

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Overview

Information on this page is provided by the innovator and has not been evaluated by HundrED.

Updated March 2026

2024

Established

730 2024

730 2025

730 2026

1

Countries

Students basic

Target group

We hope to see a shift in education from passive, theory-based learning to active, solution-oriented learning where students are not only informed about global challenges but are empowered to take meaningful action. Through “Code and Protect,” our aim is to move beyond teaching isolated subjects and promote transdisciplinary, real-world learning that connects environmental education with STEAM, technology, and inquiry. We envision classrooms where students are creators rather than consumers of knowledge, investigating real issues, designing solutions, and applying their learning in authentic contexts. This includes developing critical thinking, creativity, collaboration, and problem-solving skills alongside a strong sense of responsibility and agency. Another key change is integrating sustainability as a core element of learning rather than an additional topic. By aligning with the UN SDGs, students understand their role in a global context and see themselves as contributors to a better future. Ultimately, we aim to nurture environmentally responsible, innovative, and proactive global citizens who can improve the world.

About the innovation

Why did you create this innovation?

We created “Code and Protect: Science and Environment Programme” to address a key gap in education: students learn about environmental issues but are rarely empowered to take action. Traditional approaches remain theoretical and disconnected from real-life challenges such as climate change and sustainability. As a result, students develop awareness but not the skills or agency to create change. As inquiry-based educators, we wanted to design a learning experience where students not only understand problems but also develop solutions. This led to an interdisciplinary model integrating environmental education with STEAM and robotics. Grounded in real-world contexts and the SDGs, the programme engages students in hands-on, inquiry-driven learning where they investigate, design, and act. Coding and robotics are used as tools for problem-solving rather than isolated skills, helping students think critically and creatively. The programme also promotes collaboration, student agency, and a strong sense of responsibility. Ultimately, we created this innovation to empower students to become active, solution-oriented global citizens who can contribute meaningfully to a sustainable future.

What does your innovation look like in practice?

In practice, “Code and Protect: Science and Environment Programme” is implemented as an inquiry-based, transdisciplinary learning experience integrated into the curriculum. Each unit is connected to real-world sustainability themes such as water, energy, biodiversity, and responsible consumption, aligned with the SDGs. Students explore these themes through hands-on investigations, experiments, and field-based learning experiences that make concepts tangible and meaningful. The programme combines environmental learning with STEAM and robotics. Students engage in unplugged coding, design challenges, and collaborative projects where they plan solutions step by step, test ideas, and create models or prototypes. Learning is structured in a spiral progression across grade levels, ensuring that concepts deepen over time. Teachers facilitate the process through guided inquiry, while students take an active role by asking questions, researching, designing, and presenting their solutions. Collaboration, creativity, and critical thinking are embedded throughout, and students are encouraged to share their work with peers and the wider community.

How has it been spreading?

Code and Protect: Science and Environment Programme” has been spreading through whole-school implementation, teacher collaboration, and sharing practice beyond the school. Initially introduced within the inquiry-based framework, it was gradually integrated across grade levels, allowing teachers to adapt it within their units while maintaining a common vision. A key driver has been teacher professional development and collaborative planning, enabling consistent and sustainable implementation. Student projects, exhibitions, and presentations have made learning visible and increased engagement among parents and the wider community. As part of our commitment to educational discourse, our school also presented this innovation at the Istanbul Educational Research Congress, focusing on integrating robotics and STEM with environmental education to foster sustainability and 21st-century skills. This work highlights how aligning the curriculum with the UN SDGs and combining it with robotics and STEM enables students to develop solution-oriented approaches and contribute globally. The programme’s flexible and transferable structure supports its scalability across different educational contexts.

If I want to try it, what should I do?

To try “Code and Protect: Science and Environment Programme,” start by identifying a real-world sustainability theme such as water, energy, or waste, and connect it to your existing curriculum. Design an inquiry-based unit where students explore the issue through questions, research, and hands-on experiences. Integrate simple STEAM activities and introduce coding or robotics—preferably starting with unplugged approaches—to help students plan and test solutions step by step. Collaborate with other teachers to create interdisciplinary connections and ensure the learning is meaningful and relevant. Encourage students to design, prototype, and present their ideas, fostering creativity, critical thinking, and agency. Begin small, reflect on the process, and gradually expand the approach across grade levels.

Implementation steps

Phase 1 – Preparation and Capacity Building

Teachers and coordinators will collaboratively align existing units with environmental goals and explore strategies for integrating the SDGs into transdisciplinary learning. The environmental classes guide and age-specific learning goals will serve as reference tools during this phase.

Phase 2 – Implementation and Monitoring

Units of inquiry related to environmental topics will be progressively implemented across all grade levels. Students will engage in project-based learning, robotics, and design tasks, supported by formative assessments and teacher observations. Ongoing collaborative meetings will help monitor student learning and adjust instruction as needed.

Phase 3 – Reflection and Revision

At the end of the first implementation cycle, the school will conduct a structured mid-cycle reflection. Student work samples, teacher documentation, and feedback from students and families will be collected. The planning team will analyse the effectiveness of the learning experiences and assessment strategies. Based on the findings, units and activities will be revised to enhance impact and better meet student needs.

Phase 4 – Updated Implementation and Monitoring

Revised and enriched learning engagements will be delivered during the second year of implementation, continuing across all grades. Teachers will integrate feedback and continue to monitor student outcomes through reflection and documentation.

Phase 5 – Final Reflection and Celebration

This final phase will include the celebration of student learning through exhibitions and portfolios.
The school will gather evidence of impact, such as photos, student reflections, teacher observations, and community feedback, and conduct a school-wide reflection process. All stakeholders, including students, teachers, coordinators, and families, will participate in evaluating the long-term impact on student learning and behaviour.