Green transformation is profoundly reshaping our society and economy, with serious implications for technology, production, services, consumption and investment. If Europe is to remain competitive in the low-carbon economy, must invest in its people and develop green skills, which foster innovation, create quality jobs and strengthen the resilience of communities. Strategic initiatives such as the European Green Deal (European Green Deal) and the European Commission's Skills Union strategy (Union of Skills), underline the crucial importance of preparing citizens for the challenges and opportunities of a sustainable future. These strategies place emphasis on lifelong learning, the development of basic skills, as well as targeted upskilling (upskilling) and retraining (reskilling) in critical sectors.

Investments in green skills have the potential to transform labour markets, open up new career opportunities (in renewables, sustainable mobility or the circular economy) and foster active citizenship. Education plays an important role in this transformation. science, technology, engineering and mathematics (STEM) education), which provides a foundation for innovation, critical thinking, and problem-solving. By connecting STEM with the broader context of sustainability learning, we can create a holistic approach that combines the strengths of both areas.

Understanding the challenges: Skills shortages and inequalities

Green jobs include professions that contribute to reducing harmful social and environmental impacts, restoring ecosystems and promoting sustainable practices. While the green transition affects all professions, sectors such as waste management, energy, the circular economy and transport require highly specialised skills. However, with the rapid pace of change, new skills gaps. An example is the renewable energy sector, where 3.5 million jobs are expected to be needed by 2030. Preparing for this job market includes developing technical green competencies, but also transversal skills such as resilience, adaptability, creativity and critical thinking.

However, access to STEM education is accompanied by significant inequalities. Women and girls are still underrepresented in STEM fields, which limits diversity, hinders innovation and leads to wasted talent. This is influenced by stereotypes, a lack of role models and biased educational materials. Moreover, students from disadvantaged backgrounds face serious barriers – up to half of them in the EU are underachieving in mathematics. Students with a migrant background also face a similar increased risk of failure.

The role of career guidance and community

Many young people are interested in green careers, but they often lack awareness of the opportunities or are overwhelmed by an excessive amount of uncoordinated information. The starting point is modern career guidance, which can introduce students to a wide range of green opportunities and help them find the right educational path. Career guidance professionals should therefore be well informed about new trends in the labor market.

It also plays a key role local community. Activities such as green job fairs, social media campaigns, peer learning and family engagement help raise the profile of green career paths and make them more accessible to all.

Proposed solutions: Partnerships, Living Labs, and teacher support

A successful green transformation requires systemic solutions and cooperation at all levels:

1. Strategic partnerships: It is essential to link policy measures to the needs of employers, while keeping educators themselves as key actors to maintain pedagogical integrity. National and local policies should support stable, long-term and well-funded partnerships.
2. Living labs (Living labs): Traditional classroom teaching is not enough to understand the complex challenges of sustainability. Living labs are collaborative, real-world learning environments that bring together schools, research institutions, businesses and environmental organizations through hands-on, applied learning. An example is the ENERGY & WATER Science Center in Copenhagen, which offers hands-on courses on energy production and climate change adaptation for children.
3. Vocational education (VET): Vocational education institutions have a crucial role in quickly addressing technical gaps in the labor market in the short term, in close cooperation with unions and companies.
4. Support for teachers and school management: There is a persistent shortage of qualified STEM teachers across the EU. Moreover, many educators lack systematic training to integrate sustainability into their teaching. The solution lies in strengthening sustainability in initial and in-service teacher education, providing quality resources and reducing administrative pressure. Schools should adopt a whole-school approach (whole-school approach), where leadership, teachers, and support staff work together to create a curriculum that combines STEM and sustainability.

Examples of good practice and available resources in Europe

Several inspiring projects and networks are already operating across the European Union, showing how to link education with practice. A major player is the network of European Ministries of Education. European Schoolnet (EUN), which manages the Scientix community focused on STEM education in Europe and provides teachers with valuable materials and campaigns.

Another important tool is Cedefop Green Observatory, which provides an overview of the impact of the green transition on jobs and skills in individual sectors across the EU. At regional level, initiatives such as the German network BilRess, which brings together hundreds of members to develop skills for the efficient use of natural resources, or a Belgian NGO GoodPlanet Belgium, which implements educational programs for schools in the field of sustainability and critical thinking. Specialized career portals, which operate in Austria, France, Germany and Ireland, also serve to support young people in their search for green jobs.

Towards integrated and inclusive education

STEM education and sustainability learning share common goals and can be mutually reinforcing. However, their integration should not mean a reduction to isolated technical topics. On the contrary, education should be embedded in a broader humanistic vision, which cultivates in students empathy, ethical reasoning, critical thinking, and a deep sense of responsibility towards people and our planet. Inquiry-based learning (inquiry-based learning) and design thinking supports reflection and creative problem solving in the real world.

The aim of modern policies should not be just to respond technocratically to the demands of the labor market, but building inclusive and equitable education systems, that value diversity, promote social justice, and empower students as active agents of positive change. JRi&CO2AI