The SPACE4GEO panel at the 18th European Space Conference brought together leading European space sector experts to address critical challenges in workforce development, skills gaps, and talent attraction. The discussion featured representatives from industry, academia, policy-making institutions, and research organisations exploring solutions for building a thriving space economy.

The panel featured Tomas Halaska from the European Commission (DG DEFIS), working on the Space Skills dossier and the CASSINI Space Entrepreneurship Initiative; Stefan Lang, Scientific Director of the Erasmus Mundus Copernicus Master in Digital Earth; Stéphane Ourevitch, Co-founder of ALSO Space and Board Member of EARSC; Grazia Fiore, Permanent Representative of Space Y and Satellite Applications Consultant at FDC; and James Francis, Junior Research Fellow at the European Space Policy Institute.

Challenges and Opportunities for Space Careers

When asked about the challenges and opportunities for careers in the space sector, panellists highlighted both obstacles and promising developments. Major barriers include strong competition for AI and machine learning talent, salary disparities compared to sectors like healthcare and finance, and unclear expectations about what “working in space” concretely entails.

However, opportunities abound: the sector’s intrinsic attractiveness and inspirational nature remain powerful draws, with 97% of professionals citing inspiration as their primary motivation. The working environment and the concrete impact of space applications -particularly in Earth observation- offer unique value propositions that financial compensation alone cannot match.

Critical Skills Gaps in the Space Sector

A central theme of the discussion was the persistent mismatch between the skills required by the sector and those currently available in the labour market. On the technical side, employers report significant shortages in advanced and highly specialised domains. Software engineering and data analytics remain among the most in-demand profiles, particularly where expertise in AI, machine learning, and big data processing is needed for downstream satellite data exploitation. Systems engineering and integration capabilities are also essential, given the multidisciplinary nature of space missions and the complexity of project execution. In addition, spacecraft operations and electronics engineering roles continue to prove difficult to fill, largely due to the limited availability of experienced professionals. Recruitment challenges are particularly evident in areas such as cybersecurity for satellite systems and advanced software development for satellite operations, where lengthy hiring processes reflect a clear scarcity of qualified candidates.

Significant gaps also exist in transversal, soft skills. Communication and interpersonal abilities are crucial for cross-disciplinary collaboration and effective project management. Adaptability and flexibility are increasingly important in a rapidly evolving technological and market environment. Leadership and problem-solving skills are equally vital for managing complex projects and diverse teams. Employers emphasised that these soft skills are indispensable, yet frequently insufficiently developed among graduates entering the workforce.

Why the Mismatch?

Several structural factors contribute to this imbalance. Traditional educational curricula often prioritise theoretical knowledge over practical application and may not fully reflect evolving market demands. As a result, graduates can be academically strong but insufficiently prepared to operate in dynamic, real-world professional contexts.

Limited access to hands-on training and internships further constrains the development of applied competences. In some cases, companies are unable or unwilling to invest in training interns, which exacerbates the gap between education and employment.

Diversity and inclusion also emerged as important considerations. The underrepresentation of women and individuals from varied backgrounds continues to restrict the talent pipeline and limits the diversity of perspectives that foster innovation. The panel highlighted that diversity should be understood broadly, encompassing not only gender but also educational, cultural, and professional backgrounds. Mobility programmes such as Erasmus were recognised as valuable tools for exposing students to different environments and encouraging mutual understanding rooted in a shared passion for space.

European Initiatives addressing these challenges:

• Space Career Launchpad and Space Camps (DG DEFIS/CASSINI) to engage young people and graduates
• Erasmus Mundus Copernicus Master in Digital Earth combining research-driven learning with practical application
• DIVERIS project and synergies with the STEM Education Strategic Plan promoting diversity and inclusion
• ASTRAIOS, SpaceSUITE, and the European Space Support Office (EUSSO) connecting education with industry needs
• ESPI Talent Report providing insights into required skills and graduate preparedness

Attracting and Retaining Talent: key recommendations to avoid the Retention Paradox

The discussion revealed that attracting young people to the space sector is not the primary difficulty. Interest in space remains strong, and many professionals cite inspiration as their main motivation for entering the field. The more pressing challenge lies in retaining students throughout their studies and encouraging STEM graduates to pursue space-related careers rather than moving to other sectors, such as finance or healthcare, where salaries may be higher.

Competition for expertise represents a particular barrier, as certain skills are in high demand across multiple industries (e.g. AI and machine learning). In this context, the intrinsic attractiveness of the space sector -its societal impact, its innovative character, and the sense of purpose it offers- becomes a decisive factor.

The working environment also plays a crucial role. CEOs and senior professionals can play a key role as ambassadors for the sector, actively engaging with universities and clarifying career pathways. Many graduates report uncertainty about professional expectations, suggesting a need for clearer communication and structured feedback between industry and academia.

The panel stressed the importance of strengthening the link between research, education, and industry needs. Research-driven education, particularly at Master’s level, was highlighted as an effective model when grounded in high-quality and practice-oriented research. Such programmes foster peer engagement, alumni networking, co-teaching approaches, and a learning environment built on authenticity, trust, and shared passion.

There was also a call for a stronger focus on the practical use of data. Rather than concentrating exclusively on every technical detail behind space infrastructures, educational programmes should ensure that students are confident in applying space data effectively. Supporting internships -both for students and for companies willing to host them- was identified as a concrete step to bridge the gap between theoretical knowledge and professional practice.

By showcasing concrete success stories from professionals working in the sector, such initiatives help demystify space careers and present relatable role models.

Inclusivity initiatives targeting teenagers and young adults were presented as promising approaches to broadening participation

Reports such as those produced by ESPI provide useful insights into talent trends and preparedness.

Looking Forward

Sustaining a competitive and innovative European space ecosystem requires more than inspiration. It calls for closer cooperation between education providers, industry, and policymakers; clearer identification of required skills; stronger support for practical training; and a comprehensive approach to diversity and inclusion. By addressing these dimensions in a coordinated manner, Europe can better align skills supply with industry demand and secure the talent necessary for the future of its space sector.