Aerospace manufacturing and energy in orbit: two Italian paths toward a new industrial frontier
The evolution of aerospace manufacturing in Italy is becoming a crossroads of high-level expertise, venture capital, and public-private support policies. On one side, regional industries seek to consolidate a domestic supply chain capable of delivering mechanically complex components for orbits and defense missions, while on the other, the birth and development of Deep Tech solutions that aim to redefine energy availability in space emerge. Both cases tell the same trend: turning academic and technological knowledge into scalable industrial platforms that can compete internationally, opening European and American markets and creating networks of collaboration among universities, companies, and investors. In this context, the keyword is “aerospace manufacturing,” understood not as something static, but as a dynamic ecosystem able to migrate from laboratory research to an integrated value chain, where certifications, internationalization, and targeted investments speak to one another.
The evolution of aerospace manufacturing in Italy is becoming a crossroads of high-level expertise, venture capital, and public-private support policies.
The first front tells a story of growth and industrial strategy rooted in the Campania territorial fabric. Sophia High Tech, founded in 2013 as a spin-off of the University of Naples, has built a solid competence in producing mechanical components for aerospace and defense, working with materials such as inconel, aluminum, stainless steel, titanium, copper, and other binders. The key turning point was the encounter with Genenta Science, which opened the door to a binding offer of 6 million euros with the company taking a 20% stake and, subsequently, the prospect of a majority up to 51%. The investment aims at certifications, internationalization, and new plants, essential elements to access high-value orders and to open foreign markets, particularly in America. The Somma Vesuviana headquarters is now an industrial hub with 1,800 square meters of covered space and another 5,000 outdoors, a capacity that will be expanded to about 6,000 square meters. The team consists of 30 professionals among engineers, technicians, and skilled workers, and the company boasts relationships with Avio, Leonardo, MBDA Agenzia Spaziale Italiana, and the Gran Sasso Science Institute. Behind this growth is a story of learning: leaving wages behind in Germany, returning to Italy, starting with equipment for mechanical testing, and later opening to additive manufacturing. Achieving qualified production and the ability to manage a precise supply chain have become the backbone for a platform aiming to integrate into a national aerospace and defense supply chain.
Parallel to this, ORiS, a Turin-based startup founded in 2024 at the Polytechnic University of Turin, is building an ambitious vision: to make energy in orbit a commodity available on demand, through a wireless power transmission network based on lasers. The company emerged from the support of the local ecosystem, passing through the I3P incubator and the ESA BIC Torino, and closed a pre-Seed round of 4.5 million euros led by Earlybird and co-led by Pitchdrive, with contributions from Galaxia, Vento, and Piemonte Next Fund. This figure is complemented by a regional grant of 0.5 million, bringing total funding to 5 million. The objective is to accelerate technological growth and the realization of a flight mission to demonstrate laser-based energy transmission between satellites (satellite-to-satellite WPT) by 2027, within the DCUBED mission. ORiS’s path is strongly dual-use: LOONA, a demonstrator platform for wireless charging on drones tested also in the NATO DIANA program, provides a terrestrial proving ground to validate the technology and open the way for civilian and defense space applications. The broader goal is to redefine satellite design and onboard energy management, enabling operations even during solar eclipses or solar cell degradation, thus extending mission lifespans.
The comparison between these two paths reveals a series of common themes: the need for governance that integrates public and private investments, the responsibility to maintain the agility of a SME even as it grows, and the challenge of exporting cutting-edge technology in regulated and ethically established contexts. Both stories show how Italian aerospace manufacturing is not just a supplier subsidiary to international providers, but a fabric capable of absorbing academic expertise and turning it into high-precision productions able to compete globally. Moreover, joint opportunities emerge across sectors: from quality certification for aerospace components to demonstrating energy solutions in orbit, extending to terrestrial applications in logistics, energy management, and security.
Sophia High Tech: from university research to building an Italian aerospace supply chain
The story of Sophia High Tech frames a concrete transformation of aerospace manufacturing in the Mezzogiorno and, in particular, Campania. Founded in 2013 as a spin-off of the University of Naples, the company advanced from designing equipment for mechanical testing to adopting industrial 3D printing, initiating a transformation that broadened its production and process capabilities. Today, the main activity concerns the production of mechanical components for aerospace and defense, produced in a range of materials including inconel, aluminum, stainless steel, brass, bronze, copper, and titanium. The core operations remain milling and turning, but additive manufacturing has allowed overcoming complexity limits and reducing development times, offering a flexibility that is tightly linked to quality management and traceability demanded by the sector.
The Somma Vesuviana site today is a hub with 1,800 square meters of covered space and 5,000 square meters outdoors, around which revolves a network of 30 professionals. The planned expansion, which should bring total floor space to about 6,000 square meters, reflects a growth strategy that goes beyond simple production: it aims to create an industrial platform capable of accessing certifications, opening international markets, and supporting a “made in Italy” supply chain able to serve prominent customers. Key roles are played by strong relationships with major sector players, including Avio, Leonardo, MBDA Agenzia Spaziale Italiana, and interaction with academic institutions such as the Gran Sasso Science Institute. Genenta Science’s entry, which forecasted an initial 20% stake with the goal of a majority up to 51%, goes beyond a mere financial operation: it represents a strategic ally to accelerate process certification, internationalization, and upgrading production facilities. This type of partnership is crucial for a SME that must compete with international suppliers in sectors with highly variable demand and extremely strict quality standards.
The trajectory of Sophia High Tech illuminates two key dynamics of Italian aerospace manufacturing. On one hand, the link with the university ecosystem provides a solid ground to develop advanced competencies and offer precision components to a market that leaves no room for compromise. On the other, specialized investor and foundation support amplifies its capacity to grow rapidly without sacrificing technical excellence. The trade-off is the need to maintain an innovation culture during growth, manage scale without losing flexibility, and guarantee a supply chain able to meet ever more stringent quality standards. In this context, the combination of financial resources, governance, and new infrastructures becomes a recipe to consolidate an Italian presence in the global aerospace landscape, transforming a region traditionally manufacturing-focused into a hub of technological excellence.
ORiS: transforming energy management in orbit and beyond, with a dual-use model
ORiS stands as a litmus test for the possibility of combining academic research, high-level training, and the industrial market on frontier topics. Born at the Politecnico di Torino in 2024 and supported by the I3P incubator and the ESA BIC program, ORiS aims to redefine how satellites are designed and operate, introducing a wireless energy transmission solution based on lasers to power space missions and dual-use applications. The objective is to make energy in orbit available on demand, enabling satellites to operate at peak performance even during eclipses or when solar cell efficiency declines. To realize this vision, ORiS closed a pre-Seed round of 4.5 million euros led by Earlybird and co-led by Pitchdrive, with further contributions from Galaxia, Vento, and Piemonte Next Fund, accompanied by a regional grant of 0.5 million. The total thus reaches 5 million, allocated to expanding the technical team, continuing R&D on critical subsystems, relocating to new sites with laboratories and a clean room, and developing a flight model for a future satellite-to-satellite WPT mission, with a demonstration milestone planned for 2027 in the DCUBED mission. A distinctive element is the dual-use roadmap: LOONA, a demonstrator platform for wireless drone charging, has already provided practical validation in terrestrial contexts and integrates with the goal of extending the technology to space scenarios. Potential applications include not only energy management of space assets but also advanced logistics, surveillance, and energy management of ground-based sensitive infrastructures, opening markets for both civilian and military use.
From an ecosystem perspective, ORiS shows how a startup can quickly transition from the academic environment to a significant funding phase, thanks to a network of European actors interested in long-term projects. However, the dual-use dimension imposes ethical and regulatory reflection: it is necessary to balance the spread of sensitive technologies with the need to protect strategic assets. In addition, terrestrial validation with LOONA and the prospect of orbital missions raise questions about international standards, interoperability, and responsibility, calling for coordination between public and private sectors at the European level. Equally important is the infusion of governance dynamics that can influence development timelines and adoption by terrestrial markets, where logistics, safety, and resilience become investment levers.
A significant interconnection point between the two paths is the ability to transform laboratory-born ideas into real market opportunities. On one hand, Sophia High Tech benefits from the entry of a specialized investor that facilitates obtaining certifications and exploring foreign markets, crucial elements to take off in an international supply chain. On the other, ORiS builds a pathway to demonstrate concrete applications of orbital energy transmission, with a validation plan spanning terrestrial and orbital environments. Both cases emphasize the importance of a long-term vision capable of integrating capital, university expertise, and adequate infrastructure to sustain growth that does not rely on single contracts, but becomes part of a supply chain able to ensure resilience and competitive capacity on the global stage.
Prospects and next steps
sinergies and prospects for a new era of Italian aerospace manufacturing
The evolution of Sophia High Tech and ORiS shows how two seemingly different paths can converge on a common vision: Italy has advanced capabilities and a network of dedicated actors that can transform ambitious ideas into real industrial capacity. Aerospace manufacturing, in dialogue with research and innovation, is no longer only a regional specialty; it becomes a growth platform that integrates certifications, internationalization, and new productive infrastructures. The partnership with Genenta Science for Sophia High Tech highlights how capital and governance can accelerate access to foreign markets and appropriate quality standards, transforming a SME into a platform capable of supporting a national aerospace supply chain. At the same time, ORiS demonstrates that energy in space is not a futuristic theme: the road to laser power transmission between satellites and drones, validated with concrete tests and missions planned for 2027, positions Italy among the pioneer countries of the new generation of space energy infrastructures.
Looking ahead, the set of data tells a key lesson for founders, operators, and investors: to advance in knowledge-intensive sectors it is necessary to build integrated platforms that unite research, production, and markets. This requires not only financial investments but also governance capable of aligning academic objectives, industrial interests, and international competitive pressures. The ability to certify, internationalize, and equip oneself with advanced facilities is not a luxury: it is the necessary condition to transform frontier ideas into robust national value chains capable of competing on the global stage. In a long-term perspective, Italy could deploy a growth dynamic based on a double leverage: on one side a capable Italian aerospace supply chain serving high-level clients and opening foreign markets, and on the other a Deep Tech network able to push the frontier of space energy management. If this convergence strengthens, we could witness not only an enhancement of national competitiveness but also a new generation of companies that redefine how geographic area, research, and industry work together for innovation. And such a vision is not only desirable: it is a trajectory that, with proper governance and investment effectiveness, could become one of the main growth engines and technological security for the country.