Business and Legalities of Space

An overview of Scotland’s Space Industry and Private Competition

By the Business and Entrepreneurship Society and the Space Law Society

Scotland’s Space Industry      

The space industry is a rapidly expanding sector, accounting for nearly one-fifth of employment within the UK’s space sector. Scotland plays a significant role in this growth, serving as a key contributor to job creation and technological development. Scotland has established itself as a leader in the manufacturing of small satellites and launch capabilities, showcasing considerable potential for future growth.

After a slow start at the end of 2004, Scotland currently owns one of the fastest growing space sectors in the world, due to its strong skill set in space-related research as well as a timeline of strong innovation and entrepreneurship. Scotland's space sector has the objective of increasing its share in the space market to £4 billion by 2030. This demonstrates a clear commitment to expanding both research and long-term economic benefits. Scotland is committed to using its advantages to their fullest extent in order to boost research as well as provide long-term benefits to the economy. Historically, Scotland’s space industry started predominantly with the introduction of the British Interplanetary Society in 1933, followed by further investigation and development in the 1950s. This contributed to Edinburgh becoming host to a Royal Observatory, helping to establish a strong scientific research culture.

Glasgow has become a major hub, producing more small satellites than anywhere else in Europe. Companies such as Spire Global and AAC Clyde Space have contributed significantly to this, specialising in satellite creation, manufacturing and data collection. This highlights Scotland’s ability to compete internationally in satellite production. Scotland is one of the few places in Europe capable of supporting a full space value chain. Glasgow focuses on manufacturing, while cities such as Edinburgh contribute to data analysis and applications. The presence of organisations such as The Data Lab enables Scotland to translate satellite data into useful applications for industries such as climate monitoring and energy planning. This demonstrates how Scotland’s space industry is not limited to production but also extends to innovation and data utilisation. Geographically, Scotland offers major advantages. Its northern latitude makes it well suited for launching satellites into polar and sun-synchronous orbits, which allow for accurate monitoring of environmental conditions and solar irradiance. These orbits enable continuous observation and are essential for climate and atmospheric monitoring. In addition, launches can take place over open ocean, reducing risk to populated areas. This is supported by spaceports such as Saxavord and Sutherland, which are being developed for both vertical and horizontal launches. These developments demonstrate Scotland’s ambition to become a key launch provider within Europe and reduce reliance on international launch sites. International collaboration has also been important. Spire Global, based in California, manufactures satellites in Scotland, while RFA Augsburg is exploring launch operations in Shetland. These partnerships show how Scotland has quickly developed connections abroad, strengthening its position in the global market and attracting foreign investment.

The space sector is commonly associated with a large carbon footprint. However, Scottish companies are attempting to reduce this impact. Companies such as Skyrora and Orbex are developing “green” rocket fuels using recycled plastics and biodiesel. This demonstrates awareness of environmental concerns while maintaining growth and innovation. Despite this success, the sector faces challenges. High costs, fragile funding, and delays in launch capabilities continue to affect development. Companies such as Orbex have experienced constraints due to rising costs and reliance on private funding. This highlights the need for greater government support and long-term investment strategies to ensure sustainability.

Overall, Scotland’s space industry has developed rapidly and continues to expand. Its combination of geographic advantages, strong research base, and international partnerships suggests it will remain a key player in the future global space economy.

Private Space Competition

The modern private space sector is frequently characterised as a commercial race between firms such as SpaceX, Virgin Galactic and Blue Origin. However, this framing is misleading, as these companies do not primarily compete within a single market. Instead, they represent different business models that contribute to multiple overlapping space markets and industries. SpaceX has established dominance in orbital launch services through cost efficiency driven by reusable rocket technology such as the Falcon 9. By reducing launch costs, SpaceX has secured contracts with both governments and private companies, reshaping access to space. This has allowed for increased launch frequency and reduced cost barriers, making space more accessible. In contrast, Virgin Galactic operates within the suborbital tourism sector. It focuses on providing short-duration space experiences to high-net-worth individuals. This was demonstrated in 2021 when Richard Branson joined the first fully crewed flight. However, despite this success, the company has faced financial instability, including falling stock prices and high operational costs. In 2024, the company paused tourist flights to focus on developing its ‘delta class’ spacecraft, highlighting ongoing financial challenges. The company has also struggled to generate consistent revenue, with limited commercial flights and high operational expenses. This has led to investor uncertainty and declining stock performance. Blue Origin occupies a more complex position. Founded in 2000 by Jeff Bezos, it initially focused on space tourism through New Shepard flights, launching over 90 people into space. However, it has faced slower progress compared to competitors and financial difficulties. In 2026, Blue Origin paused its tourism programme to focus on larger projects such as the New Glenn rocket and Artemis missions, indicating a shift towards long-term infrastructure development.

SpaceX founded by Elon Musk, primarily focused on the manufacturing of rockets and has become the fastest growing rocket provider in the USA. In under 10 years SpaceX managed to create the world’s strongest rocket with over 2 times as much payload-to-orbit capacity at 1/3 of the cost comparing to other competitor rockets. Musk focused on being able to produce rockets that were reusable at considerably decreased cost to provide customers with better prices to support space exploration. However, the Falcon 9 wasn’t the first rocket to land vertically on its own it still was the first orbital-class rocket to achieve reusability. The first rocket to achieve this task was the DC-X in 1993, built by McDonnel Douglas vertically landed and changed spaceflight forever by creating the first reuseable rocket. SpaceX set to release an Initial Public Offering (IPO) which is being speculated to become one of the most valuable publicly traded companies in the entire world. The companies have hopes of releasing the IPO in June and looks to raise over $50bn of cash inflow to increase capital and expand the firm for wider horizons. Elon Musk also talks about his ambitions of implementing AI into space and colonising Mars with a self-sufficient city. Additionally, the integration of Elon Musk’s various companies advertises the IPO even more making SpaceX the world’s most formidably valuated enterprise in the world internally valued at $1.25tn. Blue Origin being SpaceX’s closest rival in the industry are still completely out matched by the Falcon series. Elon Musk’s company achieved 47 launches already in 2026 and even set a record in 2025 with 165 falcon launches with a 99.5% success rate with a complete number of 641 launches all together for the Falcons. SpaceX has continued success with satellites managing to launch their 1000th Starlink satellite of 2026 and currently controls 11000 functional satellites in orbit defeating all competing satellite companies around the planet.

These differences demonstrate that private space competition is not a zero-sum contest. Instead, companies are competing to define the future structure of the space economy itself. SpaceX focuses on infrastructure, Virgin Galactic on tourism, and Blue Origin on long-term expansion and development.

Regulation plays a key role in shaping this competition. In the UK, the Space Industry Act 2018 provides a licensing framework prioritising safety and development. Australia’s Space (Launches and Returns) Act 2018 similarly encourages industry growth. In the United States, NASA acts both as regulator and customer, supporting private companies through contracts and funding. Legislation such as the Commercial Space Launch Competitiveness Act 2015 further enables private sector participation by recognising commercial rights in space resources. These frameworks do not just regulate competition, but actively shape it and influence how companies operate globally. Companies may choose where to operate based on legal conditions, cost, and government support. As a result, legal systems themselves become competitive factors in the space industry. This creates a situation where regulation can influence business strategy and investment decisions.

Ultimately, private space competition is best understood as a fragmented landscape where firms pursue different visions of space activity. Rather than direct rivalry, it is a contest over how space will be accessed, used, and governed in the future. This also raises important legal and ethical questions regarding control, access, and ownership. The increasing role of private companies challenges traditional ideas of space being a shared domain governed by international agreements such as the Outer Space Treaty. As private influence grows, the need for updated regulation and governance becomes increasingly important.

Contributors

Paul Anderson: Paul Anderson | LinkedIn

Elizabeth Coles: Lizzie Coles | LinkedIn

Harry Duncan: Harry Duncan | LinkedIn

Alexander Jackson: Alexander Jackson | LinkedIn

Grace Levitt: Grace Levitt | LinkedIn

Maisy Mabbott: Maisy Evelyn Mabbott | LinkedIn

Ellie Stephens: Ellie Stephens | LinkedIn

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