Tag Archive for: Space

South Korea and Australia in space: Towards a strategic partnership

Space cooperation between Australian and South Korea remains stuck in its infancy and, to some extent, is treated as an end in itself. This report argues that the time is ripe for both Australia and South Korea to embark on joint projects and initiatives that would deliver tangible and practical outcomes for both countries.

For South Korea and Australia, space cooperation and space development serve as key pillars of the bilateral relationship. The two nations elevated their relationship to a comprehensive strategic partnership in December 2021, incorporating space development into core areas of cooperation in the fields of economics, innovation and technology. As a part of that elevation, the leaders of both countries agreed to strengthen joint research and cooperation between space research institutes and industries. Following that, in 2022, South Korea and Australia established a Space Policy Dialogue.

A greater bilateral focus on expanding the scope and opportunities for space cooperation could deliver foreign-policy, national-security, defence and economic outcomes for South Korea and Australia. This report argues that there are opportunities in the bilateral relationship to boost both space cooperation (the collaborative efforts between nations to leverage space advancements for mutual benefit and to foster diplomatic ties and intergovernmental collaboration) and space development (the advancement of space-related technologies, infrastructure and industries) and is pivotal in areas such as national security, economic growth and resource management.

This report first analyses the space development strategies of South Korea and Australia and examines the environmental factors that can increase the potential for cooperation. It then proposes areas where the two countries can combine their technologies and resources to maximise mutual benefits and offers eight policy recommendations to the governments of both countries.

Scott Pace, former Executive Secretary of the US National Space Council, has emphasised that ‘International space cooperation is not an end in itself, but a means of advancing national interests.’ The South Korea – Australia partnership aligns with that principle, and it’s time to realise the opportunity.

Australia’s north and space

This report examines opportunities for the development of sovereign space capability in the Northern Territory, Queensland, and Western Australia. Given that those northern jurisdictions are closer to the equator, there’s a natural focus in the report on the potential opportunities offered by sovereign space launch, particularly in the Northern Territory and Queensland. However, I also consider the potential for other aspects of space besides launch, including space domain awareness, the establishment of satellite ground stations, and space industry. I explore the potential for the co-location of space industry—domestic and international—within or close to launch sites, which would result in the development of ‘space hubs’ in strategic locations in Australia.

Benefits are gained by situating space-launch sites as close to the equator as possible, and two sites—Nhulunbuy near Gove in the Northern Territory and Abbot Point near Bowen in Queensland—are now under development. The closer a launch site is to the equator, the greater the benefit in terms of reduced cost per kilogram of payload to orbit, due to velocity gained by a rocket from the Earth’s rotation.

The report then explores the transformation of Australia’s space sector that’s occurred within the past decade, from one solely dependent on foreign-provided satellite services and locally developed ground-segment capabilities, including for space domain awareness, to the growth of sovereign space industry and the establishment of the Australian Space Agency in 2018. I note that, since the establishment of the agency, Australia’s commercial space sector has expanded rapidly, but now faces headwinds, with the recent cancellation of the National Space Mission for Earth Observation being a serious blow to Australia’s space industry. The Australian space industry sector must now fight to sustain funding. In this report, I argue that the best way to achieve success is to emphasise sovereign launch as a focus for Australian space activities and to reinforce the potential opportunities offered by the north, including for defence and national-security requirements in space.

‘With a little help from my friends’: Capitalising on opportunity at AUSMIN 2022

The annual Australia-US Ministerial Consultations have been the primary forum for bilateral engagement since 1985. The Australian Minister for Defence and Minister for Foreign Affairs will meet with their American counterparts in Washington in 2022, in the 71st year of the alliance, and it’s arguably never been so important.

The Australian Strategic Policy Institute is proud to release ‘With a little help from my friends’: Capitalising on opportunity at AUSMIN 2022, a report featuring chapters from our defence, cyber and foreign policy experts to inform and guide the Australian approach to the 2022 AUSMIN consultations.

In this report, ASPI harnesses its broad and deep policy expertise to provide AUSMIN’s principals with tangible policy recommendations to take to the US. The following chapters describe Australia’s most pressing strategic challenges. The authors offer policy recommendations for enhancing Australian and US collaboration to promote security and economic prosperity.

The collection of essays covers topics and challenges that the US and Australia must tackle together: defence capability, foreign affairs, climate change, foreign interference, rare earths, cyber, technology, the Pacific, space, integrated deterrence and coercive diplomacy. In each instance, there are opportunities for concrete, practical policy steps to ensure cohesion and stability.”

Agenda for change 2022: Shaping a different future for our nation

In line with previous Agenda for Change publications from 2016 and 2019, this piece is being released in anticipation of a federal election as a guide for the next government within its first months and over the full term. Our 2022 agenda acknowledges that an economically prosperous and socially cohesive Australia is a secure and resilient Australia.

ASPI’s Agenda for change 2019: strategic choices for the next government did, to a great extent, imagine a number of those challenges, including in Peter Jennings’ chapter on ‘The big strategic issues’. But a lot has changed since 2019. It was hard to imagine the dislocating impacts of the Black Summer fires, Covid-19 in 2020 and then the Delta and Omicron strains in 2021, trade coercion from an increasingly hostile China, or the increasingly uncertain security environment.

Fast forward to today and that also applies to the policies and programs we need to position us in a more uncertain and increasingly dangerous world.

Our Agenda for change 2022 acknowledges that what might have served us well in the past won’t serve us well in this world of disruption. In response, our authors propose a smaller number of big ideas to address the big challenges of today and the future. Under the themes of getting our house in order and Australia looking outward, Agenda for change 2022 focuses on addressing the strategic issues from 2021 and beyond.

ASPI – Embassy of Japan 1.5 Track Dialogue on Responsible Behaviour in Space

Earlier this year, ASPI and the Embassy of Japan in Australia convened a hybrid workshop on responsible behaviours in space; a concept which has emerged as a key focus of the international space policy community. At the workshop, participants discussed the stable and sustainable use of space and management of security challenges in space, and ways to define responsible behaviour in space, including through UN General Assembly Resolution 75/36. Participants at this workshop included academics, practitioners, government representatives, military personnel and legal experts from Australia, Japan, Britain and Southeast Asia.

This workshop and report were sponsored by the Embassy of Japan in Australia.

Tag Archive for: Space

Strengthening Australia’s space cooperation with South Korea

The time is ripe for Australia and South Korea to strengthen cooperation in space, through embarking on joint projects and initiatives that offer practical outcomes for both countries. This is the finding of a new ASPI report by an ASPI visiting fellow from South Korea’s Defence Acquisition Projects Agency (DAPA), Sangsoon Lee, on the opportunities ahead for Australia and South Korea in terms of space cooperation.

Lee’s paper makes clear that there are opportunities to boost space cooperation and development to mutually benefit both states in areas such as national security, economic growth and resource management.

The paper argues that the first area of collaboration should be in joint research and development into small satellite technologies. These are satellites under 100kg, which, if developed collaboratively, could build domestic manufacturing skills and infrastructure in this important technology area. The paper notes that constellations of small satellites are more effective in strengthening resilience in the face of growing counterspace threats. Lee provides the example of South Korea requiring small satellites to enhance surveillance and reconnaissance of North Korea, and he notes that Australia also has a requirement for Earth observation satellites to support civil and defence needs.

A constellation of small satellites, jointly developed by Australia and South Korea, could thus benefit both countries. Although the current Australian government cancelled the National Space Mission for Earth Observation (NSMEO) project in June 2023, the requirement that it was to meet—for space-based Earth observation and intelligence, surveillance and reconnaissance— remains in place. By jointly developing such satellites, the paper argues, the Australia and South Korea could gain benefits not only from enhancing sovereign space capability but also through developing rapid technological innovation cycles.

Building on from collaboration on small satellites, the paper then suggests collaboration in the critical area of positioning, navigation and timing (PNT). This could be achieved by establishing suitable ground stations in Australia to support and enhance South Korea’s planned Korean Position System (KPS) and the Korean Augmentation Satellite System (KASS). Australia is optimally located for ground stations, as Japan has recognised in an agreement for this country to host the Japanese Quasi-Zenith Satellite System. Furthermore, by hosting these ground facilities, such collaboration would complement Australia’s existing Southern Positioning Augmentation Network (SouthPAN), which is also used by New Zealand. The overall outcome would be to enhance the accuracy, diversity and resilience of PNT services open to both states.

By far the most significant aspect of South Korean and Australian space cooperation could be space launch. Through streamlining procedures and regulatory arrangements such as launch permits export licenses and payment of export-import taxies, cross-border movement and launch of commercial rockets could become more efficient. To this end, the paper recommends that South Korea and Australia should negotiate an agreement to build and operate a permanent space launch site that takes full advantage of Australia’s proximity to the equator and distance from potential threats.

Rockets launched close to the equator for easterly orbits gain the starting advantage of the Earth’s rotational velocity, so the launch cost per kilogram is lower than for launches from higher latitudes. For those orbits and also for orbits that cross the poles, launches from Australia do not endanger people by flying over heavily populated territory. South Korea lacks proximity to the equator, and its rockets must dodge the territory of neighbours.

Lee’s paper notes that some cooperation is already underway in regard to launch. South Korean defence company Hanwha Group is exploring use of Australian launch services through a partnership with Gilmour Space, which intends to launch its Eris 1 rocket from Bowen, Queensland. Korean firm Innospace has signed an agreement with Equatorial Launch Australia for launch services from that company’s proposed Cape York space port.

In addition to streamlining regulatory arrangements for easier collaboration, Lee’s paper argues that a dedicated South Korean launch site, established by Seoul, could then benefit local economies.

Finally, the paper argues that there should be increased collaboration in space situational awareness and space traffic management as part of broader cooperation in space security. This makes inherent sense given the reality that space, as an operational domain in its own right, is highly contested and likely to become a warfighting domain in a crisis. Boosting cooperation on space situational awareness is a key step towards collaborating on deterrence through resilience, which other aspects of cooperation, such as small satellite development and responsive launch also contribute to.

Lee’s paper concludes with a recommendation for a space dialogue that brings together government, the private sector and civil society. This can help build collaboration and see a regular sharing of perspectives on both practical collaboration and policy development. Outcomes could include a government-to-government agreement on space launch cooperation and there could be a technology working group to support cooperation in areas such as small satellite development and PNT.

That would provide a foundation for more ambitious cooperation, with Lee’s paper considering ‘moonshot’ projects such as a lunar rover to be jointly developed and made by South Korea and Australia. Others could be a collaborative mission to a resource-rich asteroid and or research on technologies such as space manufacturing, resource utilisation and space logistics.

Australia and South Korea are both new space powers, so it makes sense for them to work together to make faster progress in using the space domain to their mutual benefit. Sangsoon Lee’s analysis is excellent and thought provoking. It represents a good contribution to any future discussion between South Korea and Australia on strengthening space cooperation.

Space and Australia: opportunities in the second Trump administration

Enhancing space cooperation between Australia and the United States should be a priority for Canberra in the second Trump administration. In defence terms, that could include strengthening collaboration between the US and Australia in space domain awareness and through collaboration on space control. Leveraging locally developed space capability through assured government support of Australia’s commercial space sector is also important, as is sovereign space launch to ensure space access, resilience and ultimately deterrence by denial in space.

Space is likely to be a greater priority for the incoming Trump administration than the previous Biden administration, particularly given guidance in Project 2025. First, the Trump administration will seek to get NASA’s Artemis program back on trajectory after continued delays have seen the initial goal of a lunar landing in 2024 pushed back to 2027, while promoting rapid growth of the commercial space sector. Second, expansion of the US Space Force—established by Trump in 2019—to respond to growing counterspace threats by China and Russia is highly likely, again in line with Project 2025.

Trump’s inauguration speech talked of ‘planting the US flag on Mars’, suggesting he has also endorsed Elon Musk’s SpaceX-led prioritisation of getting humans on the Martian surface as early as 2029. However, if this focus on Mars becomes the centrepiece of US space policy, it will draw the US’s attention away from the Moon, potentially handing the lead in any effort to return to the lunar surface  over to China. Trump therefore needs to delicately manage this approach, as well as Musk’s role and ambitions.

Australia supports the United States’ Artemis project and is set to send a lunar rover to the Moon by 2026. With Trump likely to fast-track Artemis, Australian commercial space companies should be supported by the government to play a larger and more visible role in Artemis. For example, Australian-built small satellites could be delivered to lunar orbit to support surface activities, taking advantage of sovereign space launch to maximise Australia’s direct role in Artemis.

In terms of space and defence, there will be new opportunities for the ADF to increase its role in space. Australia should consider how the ADF can practically support the US Space Force if it takes a more proactive approach to the mission of space control in response to Chinese and Russian anti-satellite threats. Once again, sovereign space launch can play a key role in this new mission for the ADF in space.

While Australia has embraced a more sophisticated approach to the space domain in defence policy, the Albanese government has made significant cuts to investment into space, and lacks a national space strategy to guide Australian space activities. With a federal election looming, the winning party will need to reverse that drift in space policy and clearly commit to supporting civil and defence space activities, including in collaboration with the US and other partners. That will be particularly important as the Trump administration adopts a more ambitious approach in space. Australia must step up and increase its burden-share in orbit.

On the civil side, a good place to start would be the preparation and release of a national space strategy that guides future space activities and investment as a whole-of-nation enterprise. That could also see the Australian Space Agency become a statutory agency, supported by a dedicated minister for space policy (as has been done in New Zealand).

Australia’s space policy agenda must include building greater opportunities for small and medium enterprises, including to support international space activities such as Artemis. Sovereign space launch should play a key role, but small-satellite manufacturing and ground-based elements must also be fully supported. The goal should be an end-to-end space ecosystem that offers growth and stability to space enterprises, ending years of drift and uncertainty. That would also enable the civil and commercial space sectors to support defence requirements with locally developed capabilities.

Australia also needs continuing and closer cooperation with the US on both space domain awareness and collaboration towards developing common space control capabilities to protect Australian and US satellites in orbit. Space control will demand practical capability both on the Earth’s surface and, where necessary, in orbit to actively defend against counterspace threats. Space domain awareness is an essential starting point for space control, but practical effectors are needed to counter actual threats. Australia should support the development of such a capability, perhaps under Pillar 2 of AUKUS.

Finally, a major part of space control is assured access to space. It is important for government to support the development of sovereign space launch capabilities—both Australian launch sites and locally developed launch vehicles—to allow Australia and its allies to maintain resilient and survivable space support to terrestrial forces. The ability to rapidly deploy small satellites to augment existing capability, or reconstitute lost capability after an adversary attack, reinforces space resilience and strengthens space deterrence by denial. In the next National Defence Strategy, to be released in 2026, sovereign space launch provided by commercial companies needs to be explicitly declared as an important capability for ADF space policy.

Boosting Australian space sector would also boost economy, defence

No country is better positioned to capitalise on the growing push into the final frontier of space than Australia. Becoming the premier destination for commercial space launch would not only provide ample economic growth but would bolster national security resilience. The government should leverage its geography as well as the burgeoning fields of additive manufacturing and artificial intelligence to encourage commercial space operations and develop strategic depth.

In discussions with Australian space industry leaders, a line is often heard: ‘We can offer more than just dirt [launch sites] if there’s policy support.’ Nonetheless, Australia’s prime geographic position is key to jumpstarting the industry.

There are already several space launch sites within the country that have the potential to become space industry hubs, with surrounding business complexes that would facilitate launches. A launch to orbit is expected later this year, following several to sub-orbital trajectories, proving the capacity of the launch sites. Adding to their attractiveness is the existing import-export infrastructure within Australia, which would connect the launch sites to global shipping networks.

One challenge in expanding Australia’s space industry is hardware maintenance. Given Australia’s relatively small manufacturing sector, it will need to source repair parts internationally, which will complicate maintenance logistics even with a robust import infrastructure.

A way to mitigate this is to lean into additive manufacturing, which can create just-in-time repair parts and assemblies with unique geometries. Delays would be minimised, and customers would see higher value in using Australia as a launching point. The capability could then be applied to making military hardware, supporting commercial viability of the manufacturing operations and strengthening national defence.

Integrating cutting edge artificial intelligence into all aspects of the space industry is key. Collecting and applying mass data on part failure rates, production timelines, usage and so on will also improve efficiency of launch operations and maintenance. These cost savings will encourage growth and help ensure that the support industry surrounding Australian space ports can win against the international competition.

Additionally, the processes that are used by maintenance and logistics managers to streamline production, repairs and fabrication of complex space components can be applied to the armed forces and military manufacturing. Again, this gives a commercial viability to vital national-security technology and skills.

 

Agile manufacturing processes and AI-enabled efficiencies will be key in supporting Australia’s small workforce. Workers in Australia are generally highly educated and technologically competent, but they’re fewer in number and more expensive than those in neighbouring countries. Complementing a smaller contingent of workers with efficiency-boosting AI and agile manufacturing would increase the responsiveness of the industries, ensure high quality of products and lift economic growth.

While the lack of large-scale manufacturing experience can be considered a weakness, it also presents opportunities. Australia would not need to use capital to shift current production processes, and there would be no entrenched interest groups resisting the change to less labour-intensive production.

For the Australian space sector to take off, the government must shift the policy landscape to incentivise the industry and support the adoption of advanced enabling technology.

The formation of the Australian Space Agency in 2018 was a critical first step down this path, but more needs to be done. Increasing funding to the agency would allow it to expand its international presence, make connections with foreign partners, develop a coherent Australian space policy and become a reliable partner for the private space sector.

Since Australia has nearly perfect geography for space launch, government assistance with advertising to key foreign industry leaders in conjunction with initial support to local industry would jumpstart the sector, creating a positive cycle of investment.

Australia has a chance to boldly launch into the forefront of the space industry. This requires political will and a coherent policy strategy but would pay outsized dividends. Expansion of the sector would not only bring economic growth but would diversify Australia’s economy and particularly its industrial sector. These benefits alone merit the investment of time and resources. This would not be a case of spending money on something that, while necessary, isn’t profitable.

It’s time to prioritise space.

Australia must prioritise building its own satellite launch facilities

Australia’s burgeoning satellite industry faces a looming crisis: a shortage of launch facilities to put its technology into orbit. If left unaddressed, this crisis will add cost and delay to realising Australia’s plans for space.

The Government, universities and businesses are identifying more ways to use satellites for national security, research and economic growth, but none of these services can be accessed until the satellites are orbiting. Therefore, launch facilities are vital. This should be obvious, but the Australian space industry mostly focuses on developing smart satellite payloads.

Instead, it needs to prioritise building a space port—an essential piece of infrastructure that would enable our much-heralded revolution in space technology.

Globally, space innovation is considered a key driver of the fourth industrial revolution. Satellite applications boost productivity and efficiency across many sectors including agriculture, mining, telecommunications, climate and meteorology, as well as defence and location-based services.

In Australia too, our economy, security and civic life are already irreversibly dependent on satellites, and over the past 15 years our space industry has undergone rapid evolution and commercialisation in Low Earth Orbit (LEO) applications. But there is still a critical absence of the permanent infrastructure needed to launch LEO satellites.

Australia currently uses overseas launch capabilities, but reliance on other nations’ launch schedules and availability can lead to costly delays. On top of that, we’re now in a time of increased demand and rapidly changing strategic risk, so it’s even more urgent that we end our dependence on others.

There are launch facilities in the United States, Japan, India, China, Europe and South America, and the demand for these is expected to exceed supply by 3:1 over the next 10 years. And with the global strategic balance under stress, access to these launch sites can be quickly cut. For instance, Russia’s invasion of Ukraine cut access to launch facilities in Kazakhstan—a reduction of 15-20% in large payload launch facilities available to the Western world.

The war has also demonstrated that the space domain is the first to be attacked in modern conflicts; Russia disrupted or destroyed Ukraine’s global positioning systems (GPS), essential communications and satellites prior to invasion. Satellites may also become unavailable due to direct military action, obsolescence, change in the orbital environment or equipment failure. Certain areas may need coverage and not be able to get it.

The lesson is clear: geopolitical instability and war can simultaneously limit access to launch facilities and increase the need for more launches. Australia’s future space operations will need to respond to military action or natural disasters in a flexible, timely manner.

The conflict in Ukraine also showed that a country controlling a key space resource can deny others access to data, affecting the success of launch and space operations, whether combat or humanitarian. To operate without disruption, Australia’s space industry will need to be confident in a continuous supply of data, and a sovereign launch infrastructure can help achieve this.

Things are moving in the right direction but not fast enough. Space capabilities were designated as a sovereign industrial capability priority (SICP) in 2021 by the Morrison government, along with robotics, autonomous systems and artificial intelligence. SICPs have a strong focus on building ‘a robust, resilient and internationally competitive defence industry’, and more broadly to boost critical industry and a technology-focused workforce. But a detailed plan for space as a SICP is yet to be released. The Albanese government must address this.

For an Australian sovereign industrial capability for space to deliver any practical economic or security outcome, it’s vital to understand that the space SICP needs to be about more than developing satellites. What counts is the end-to-end space value chain: every aspect of the industry contributing to production, operation, supply and enablement activities.

If Australia develops its own space launch capability, we can know when, where and how to make the most of our satellites, benefiting our economy, security and society. Australia would have the flexibility and resilience to ensure continuity of space-based data. We could replace unserviceable satellites and launch new satellites without waiting for access to facilities overseas.

Space Centre Australia is one such company building strategic launch infrastructure capabilities, with a $750 million project in development in Far North Queensland. Having started with internal funding, the project is now collaborating with the federal and Queensland governments. First launches are anticipated after 2026.

Last year the project achieved significant milestones. Negotiating began on Indigenous land use agreements, environmental analysis was undertaken and development approvals were received. Progress was made on site design, the number of staff increased and the initial stages of securing federal government funding were passed.

To achieve Australian sovereignty, we need a domestically owned, globally competitive strategic launch infrastructure that prioritises Australian interests. Addressing this need is an essential first step in realising Australia’s ambitious space plans, strengthening our defence capability and developing a sophisticated, resilient economy.

 

Aces-high frontier: space war in 2053

There are good reasons why the best science and speculative fiction ranks high on the reading lists of many military scholars and leaders. Done well, speculative military fiction projects thoughtfully beyond the here and now, and renders real operational and strategic concepts in terms of plausible future technologies. This encourages us to think outside the box about our doctrine and our operational assumptions.

The Strategist is publishing two pieces by Jeffrey Becker, leading futurist for the US military, as prime examples of this kind of fiction. Today’s piece, ‘Aces-high frontier’, was first published in January 2019 in The Strategy Bridge. We are republishing it today with kind permission because many of its speculations have been vindicated by real events in Ukraine and elsewhere, showing the foresight that such fiction can achieve. Set in 2053, it discusses ideas such as a ‘kill mesh’, anticipating the lessons learned by Russian forces about combined arms and the role of the private sector, with even a nod to Elon Musk, to give just a couple of examples.

The second piece, to be published in coming months, is new. It examines the importance of rocket forces, advanced space capabilities and, most importantly, adaptation and innovation of people to win the fight on earth. When we look back at these piece of fiction in a few years’ time, how much will be reality, or on its way to becoming reality?

Kill mesh

You expect an electric crackle, the deep whine of machinery, a bolt of red across a planetary foreground, the roar of rocket engines. Wrong. When the US Space Force is in action, it really couldn’t be less cinematic. Anti-visual even.

Yes, the earth is still an astonishing sight from our perch at the earth–moon L4 Lagrange point, but battle itself is rather anticlimactic. No explosions. No starfighters careening this way and that.

The fight I manage (and ‘manage’ in this case is a term I use loosely) unfolds at inhuman speeds. Warfare in 2053 stretches over most of the planet. Thrusts, counters, feints all flash by in the millions over milliseconds. Remorseless AIs manoeuvre electrons, photons, code and data to blind, spoof, confuse, glitch and burn up microchips, radars and anything tied to a computer chip, radar or sensor.

Someone plastered a bright red sticker with an arrow labelled ‘Pointy End’ next to the heads-up display as a joke. How can anything in a 10,000-ton tin can 24,000 miles up be at the pointy end of anything?

But what happens here is very much the cutting blade of US military power worldwide.

‘Admiral Lane,’ ACES called out from my display. ‘Bithammer engagement appears to be successful.’

ACES is the call sign of the L4 station’s global integration AI. The joint force has several joint AIs in action around the world; ACES is at the core of L4 station’s mission and the real secret sauce for US Space Force operations up here.

The main job of the L4 station is to protect and feed ACES as it sifts through the trillions of bits collected from sensors, radar returns, emitters and data brought back from cyber-scout AIs. Few movements of military equipment happen planetside without L4 observing and understanding. ACES constantly assesses the military environment and manoeuvres space force assets and tens of thousands of robotic and human land, space and air enablers into place.

ACES can also direct an array of laser, electronic-warfare and cyber-assault capabilities from orbit. Most can reach targets from the earth’s surface to geosynchronous orbit. Primarily consisting of Constellation-class and Viper-class satellites, ACES works to cover and protect every joint force movement, munition, base and facility with electromagnetic and cyber fire. In this kill mesh, machine-age weapons like tanks, surface ships and fighter aircraft are not useful on their own.

Although space force operations are not very visually spectacular, the results of engaging from space are really quite effective.

Satisfying.

Usually, radars burn up, platforms go dumb, 3-D printers trying to construct or rebuild bricked components make defective replacements. Things just don’t work as the space force amplifies and weaponises Clausewitz’s fog and friction.

ACES collects full-motion, real-time hyperspectral data at one-inch resolution from thousands of orbiting platforms. Space force radars and lasers seek out sensors and emitters, while ACES catalogues and probes interesting targets with mobile code. ACES collects this information and builds a synthetic model of the world to understand meaning and implications.

‘Request authority to execute interdiction mode 4,’ ACES asked through my immersive display.

‘Granted.’ This command provides the AI with the parameters to coordinate global cyber, electromagnetic and directed-energy strikes against groups of the People Liberation Army’s air, maritime and ground mobile orbital interdiction lasers.

These mobile lasers are enforcing a self-declared orbital defence identification zone, or ODIZ, stretching from 60 miles up to geostationary orbit. China currently demands that satellite operators pay a fee to transit over its territory and comply with restrictions on sensing or emitting while inside the ODIZ.

‘Employing 263 femtosecond laser pulses, from six Viper platforms.’

Each of these pulses would send a cascade of gamma radiation through its target. Although the primary effect is to damage the adaptive optics actuators, ACES is manoeuvring viruses through the temporarily blinded firewall, allowing mobile lock code to infiltrate the system and beaconing the system for follow-on targeting.

‘Continuing engagements.’

ACES scanned the surface for other systems attempting to enforce the ODIZ. ACES sums up thousands of scans, cyber reconnaissance actions, and the results of correlation analysis on my screen. Streaks of green began to appear within the red orbital zone above China denoting corridors clear of the laser and electronic-warfare threat from the ground.

Decades of deep neural net correlation analysis and millions of simulations mean we trust that ACES can confound, disrupt and destroy when we need it to. And we need it to. The president ordered ACES into action to maintain orbital freedom of navigation over China despite the ODIZ.

Operating from US Space Force Base L4

Why build a military facility at L4?

The oldest rule in the book is to fight from the high ground. And from L4 everything is effectively downhill. Better yet, objects put here tend to stay here. It’s also why private companies gently and carefully moved a pair of half-mile-long asteroids to this specific spot in orbit in the late 2030s.

The asteroids, Plymouth and Williamsburg, are brightly visible from the station’s observation deck. Plymouth is a chunk of raw metal and home to many lucrative mining and manufacturing facilities. The ice of Williamsburg is even more valuable, supporting a thriving satellite refuelling business, shuttling hydrogen and oxygen to users far more cheaply than bringing it up from earth.

Right now, only Five Eyes partner nations mine here. Many other nations don’t believe we should be able to capture and use these for exclusive commercial purposes. Part of the L4 mission is to keep an eye on these commercial activities, as US national strategy directs the space force to protect scientific and economic access to outer space for the US and its allies and partners around the world.

Suddenly, my visual display froze and the station shuddered hard, visibly accelerating towards Plymouth. Much closer than I would like.

ACES came up on the headset again. ‘Sir, several temperature spikes are reading across the station. External communications shut down, and pointing and tracking temporarily disrupted.’

‘What’s the cause?’

‘I assess that we’ve been struck by several bursts of a high-energy laser. The targets suggest that the attack is intended to interdict our counter-ODIZ campaign. In fact, I’ve lost control over the Vipers currently operating in the China–LEO theater. Working to restore.’

The lights throughout the station flashed momentarily. Air vents not blowing. Not good.

‘ACES, where is it coming from? I thought you had the draw on any DE in range of the station?’

‘The geometry of the attack and the energy flux indicate a laser with a capacity of a petawatt or greater striking from the southern polar region of the lunar surface.’

How we fight

The US Space Force was really a response to the Chinese, who since the 2020s had increasingly knitted space, cyber and electronic-warfare capabilities in its innocuously named Strategic Support Force. China recognised the need to be vigilant, active and dominant in information confrontation in all its forms.

Indeed, as far back as 2005, Chinese writers noted that ‘before the troops and horses move, the satellites are already moving’. They understood very early that without space dominance, information dominance would not be possible. Without information dominance, operations in the air, sea and land would fail. Thus, in the Chinese mind, space would inevitably be a battleground.

The Chinese and the Russians appeared to be well in advance of us on the conceptual importance of the fusion of information, space, cyber and the electromagnetic spectrum. What set the US Space Force in a class by itself was its inexplicable—almost magical—lead in space lift.

‘Thank you, Elon Musk,’ I thought, picturing Musk’s cherry-red first-run Tesla at the entrance to his compound on Mars.

EBFR rockets and space vehicles (SpaceX for ‘Even Bigger Falcon Rocket’) allowed the US and its partners and allies to build a thriving commercial space industry. Like the historic Model T, DC-3 or Nimitz-class carrier, EBFR is a tangible and easily recognised symbol of American technology and power.

The Chinese still don’t have anything as big, cheap and capable as EBFR. The Russians are still dumping their used rockets at sea.

We use dozens of EBFRs to throw thousands of mass-produced satellites in orbit almost at will. Our global command-and-control network funnels data to the L4 station and knits it together into a real-time, multispectral Google Earth. ACES thinks through this tsunami of data, simulates and emulates it, and provides near-real-time, in-depth analysis of activities and probabilities of all military infrastructure on the planet. We can even rewind.

The big dark

Because of our overwhelming competitive advantages in space, the Chinese went a different way—focusing instead on lasers, hypersonics and quantum-based encryption, and hiding their goals and objectives.

We didn’t see this direct attack on L4 coming. We didn’t see the ODIZ declaration coming.

‘ACES, what do you know about the Big Dark?’

‘Although we can still see what’s going on physically within China and around the world, I calculate they’ve been able to pull together quantum computers, communications and optical elements into an end-to-end secure network. Although I can sometimes detect the links between different nodes, when I attempt to decrypt the messages, they disappear.’

‘Meaning?’

‘I suspect they’ve used my ignorance to plan and execute this ODIZ enforcement effort. Pushing their airspace and keeping us behind Plymouth means I can’t observe China from space. That unlocks their ballistic and hypersonic systems as well as air, sea and land assets to operate without interference.’

I thought for a moment. ‘We’re blind and our forces on earth are vulnerable to attack.’

Operation AlphaGo

‘Sir, the shuddering you felt was me moving the station behind Plymouth. This puts the asteroid between us and the moon. The L4 station is very well protected here. No laser can penetrate a rock of this size. However, we are pinned down and I cannot integrate counter-ODIZ operations. I anticipate large-scale terrestrial movement of their forces soon.’

‘What is going on with China on the moon? I mean, beyond the fact that they’ve managed to install a working battle laser without us noticing.’

The 10-person research station at the moon’s south pole has always been something of an enigma. Strangely, over the past decade they worked to string kilometres of wire in a radio-astronomical instrument conveniently spanning the moon’s only accessible sources of water.

The Chinese recognise how touchy we are about incursions on our old Apollo sites. Like us, they refer to the instrument as the common heritage of mankind that should not be disturbed. This put most of the moon’s water under their direct control. It also means they have the fuel to power a station capable of operating a laser of that size.

ACES thought for an interminable moment. (I find long pauses from AI very disturbing.)

‘AlphaGo versus Sedol, game 2, move 37,’ came back over my headset.

Sometimes ACES free-associates things. Humans often take time to catch up with the mental connections AIs can make. However, the reference to Lee Sedol’s epic 2016 Go match with AlphaGo was clear. The Aerospace War College’s ‘Intro to AI’ class (taught by an AI, of course) uses the game as an example of how AI can demonstrate extraordinary, superhuman foresight.

Go was thought to be too complex for AIs to compete with world-class human players. AlphaGo placed a black stone in a position never seen in Go’s 2,000-year history. Sedol left the table in shock at the long-term implications of the move and soon resigned the game.

‘So, while we’ve been focused on earth, China managed to put a working weapon on our spaceward flank?’ I asked.

‘Yes.’ ACES replied. ‘My working hypothesis is that the base has built a laser capable of interdicting us in GEO and L4. Maybe even to earth itself. In effect, this laser is a black-piece move so far off the board that it appears irrelevant, but is really a potentially dominant strategic gambit.’

‘The Chinese are playing a game of position against our campaign of manoeuvre and cyber-electromagnetic attrition?’

‘Yes,’ ACES replied. ‘I’ll need some assistance setting new parameters, Admiral.’

ACES fit together a number of movements into a potential Chinese theory of victory. The most likely scenario playing out on my strategic display—now showing the broader earth–moon system, key orbits and positions, as well as how a struggle for control might unfold. A bright red point radiated out from the moon’s south pole, rays beginning to isolate the L4 station and collapsing our ability to use orbital space and thus to control the information confrontation on earth.

ACES began to put together options, already communicating designs for a fast-moving weapon to attack the moon station. The vehicle, built out of an entirely new ring and stack assembly, would be shaped and moulded from Plymouth’s metal. Looking like an alien spider web of tangled metal, the assembly would distribute high-G loads from three connected EBFR orbital segments and a formation of observation, Viper and Constellation sats. The spider web would allow the EBFRs to deliver a fleet of combat sats towards the lunar base at high speed.

But first, the spider web would be connected to a rough slab of ice cut from Williamsburg. The ice slab would shield the satellites and EBFRs from the attacking lunar laser. After departing earth orbit, the jury-rigged vehicle would swing 35 miles above the lunar south pole. At perigee, three observation sats would detach from the spider web, emerging from behind the slab in different directions and mapping the Chinese lunar base below. They would be destroyed quickly, but ACES could use the data to construct a model of the base, ejecting and manoeuvring nine Viper and Constellation sats from behind the slab seconds later, hitting as much of the base’s critical infrastructure as possible.

Two days later, after swinging through a high, looping orbit, the remainder of the stack, including the spider web and ice shield, would crash into the base, making an immense crater and putting the laser (and probably the whole station) out of business for good.

The president flashed up on the display. ‘Admiral Lane. I understand you are under attack. What do you advise?’

‘ACES, will you please show the president the concept?’

Outdated treaties won’t stop the rush to control resources in space

The 2019 movie Ad Astra had a US military base on the moon and a memorable battle scene involving a moon rover, implying that by late this century the moon will be heavily militarised. A question now being discussed in space policy circles is whether fact will follow science fiction, as the US Space Force considers exactly what its role will be. It has some pretty ambitious ideas, and a recent report indicates that its thinking will be shaped by a deep astrostrategic perspective.

So it wasn’t much of a surprise when news emerged that a group of US Air Force Academy cadets are researching the idea of military bases on the lunar surface. The academy’s Institute for Applied Space Policy and Strategy has a ‘military on the moon’ research team that was set up ‘to evaluate the possibility and necessity of a sustained United States presence on the lunar surface’. The focus seems to be on a military base, though there’s little information on exactly what they’re planning.

But the very notion of a military base on the moon has the space law community understandably seeing red.

Such a base would directly conflict with both the spirit and letter of the 1967 Outer Space Treaty (OST), which provides the foundation for space law. Article IV of the treaty states that:

The Moon and other celestial bodies shall be used by all States Parties to the Treaty exclusively for peaceful purposes. The establishment of military bases, installations and fortifications, the testing of any type of weapon and the conduct of military manoeuvres on celestial bodies shall be forbidden.

A military base on the moon would also violate the 1979 Moon Treaty, which Australia supports, though no major space power has ratified it. So that means no overt or declared lunar military bases, at least as long as all powers remain signatories to the OST.

The academy cadets would no doubt be aware of this. Why even consider such a move, then?

Current space law was developed for a different, more benign era and doesn’t adequately address the emerging dynamics of space activities. The framework has gaps that that an adversary could exploit in grey zones in coming decades. In particular, commercial space operations provide a convenient cover for states that wish to creep around international space norms and sidestep established law.

The OST doesn’t prohibit military personnel from being on the moon for scientific ‘or any other peaceful purposes’, and states that ‘the use of any equipment or facility necessary for peaceful exploration of the moon and other celestial bodies shall also not be prohibited’. That implies that a commercial facility supposedly established for peaceful exploration could be staffed by military personnel. Because the treaty leaves a facility’s role wide open to interpretation, a thin veneer could separate a commercial base from an undeclared military facility. A classic example of this problem exists here on earth—in Antarctica.

The OST does require signatories to ensure that they or their commercial representatives conform with Article IV: ‘States Parties to the Treaty shall bear international responsibility for national activities in outer space, including the Moon and other celestial bodies, whether such activities are carried on by government agencies or by non-governmental entities.’

That sounds good, but the clarity dissipates when future commercial space activities are considered in more depth in the light of recent developments in space law. The 2015 US Commercial Space Launch Competitiveness Act sets a precedent for potential grey zones over legitimate activity by permitting a commercial company to secure, own and profit from a space resource.

The act explicitly states this doesn’t allow a company to claim sovereignty, and thus avoids a challenge to the OST’s provision that, ‘Outer space, including the moon and other celestial bodies, is not subject to national appropriation by claim of sovereignty, by means of use or occupation, or by any other means.’

Yet it’s unclear how a private company will see securing and profiting from a resource as compatible with not controlling the region of a celestial body on which the resource is found. Safeguarding access to a resource—and preventing a competitor from intruding in the region being exploited—implies a security dimension that the OST wasn’t designed to manage.

In April, US President Donald Trump signed an executive order on ‘encouraging support for the recovery and use of space resources’ which said that ‘it shall be the policy of the United States to encourage international support for the public and private recovery and use of resources in outer space, consistent with applicable law’.

The administration then released the Artemis Accords, which are designed to establish a common set of principles to govern the civil exploration and use of outer space. The accords make clear that ‘all activities [on the moon] will be conducted for peaceful purposes, per the tenets of the Outer Space Treaty’. That tends to reinforce the role of the OST, at least for the US and its allies and partners in space.

The Artemis Accords require the US and its partners to share information on the location and general nature of operations so that ‘safety zones’ can be created to ‘prevent harmful interference’. That implies delineation of territory or a zone of control around a facility.

Space is a global commons that is rich in resources, and major-power competition—as well as commercial competition—is already happening and will intensify in coming decades. It seems likely that, despite the OST, states and non-state actors will compete for access to and control over resources in space. And achieving that access and control will require a permanent presence in the region where the resources are located.

The messy debate over how the commercial and astropolitical realities sit with the OST’s vision of space as a peaceful sanctuary and commons open to all is just getting started. Lunar military bases are not inevitable, but competition for resource wealth on the high frontier is.

Towards a blue-water space force?

The formation of the US Space Force has raised inevitable questions about its purpose and role and about how it will fit in with broader US space policy and activities in the civil and commercial space sectors. It’s an issue that Australia’s defence policy community, and our growing commercial space sector, need to keep on top of.

The space force sits within the US Department of the Air Force in the same way as the US Marine Corps sits within the Department of the Navy. Its role is to provide ‘freedom of operation for the United States in, from and to space; and prompt and sustained space operations’ and its duties are to ‘protect the interests of the United States in space; deter aggression in, from, and to space; and conduct space operations.

That’s a broad remit with lots of loose language. And, as Douglas Adams notes in The hitchhikers guide to the galaxy, ‘Space is big. Really big’, so there’s ample room to grow the branch’s mission and develop new capability in coming years. John Klein argues that it will take time for the space force to develop its a unique service culture with which to shape innovation in operational thinking. That’s essential for the force’s capability requirements and force structure.

Its short-term focus will be in the near-earth region between low-earth orbit, starting at around 160 kilometres, and geosynchronous orbit, extending out to 36,500 kilometres.

To use a maritime analogy, we can think of this region as the ‘brown water’ battlespace. It’s the region most directly relevant to terrestrial military operations, because it’s where the space capabilities of the US and its allies, as well as those of China and Russia, are located. If a major-power war eventuates, the first shots are likely to be fired in this region to gain space superiority.

Human activity is set to extend well beyond this region out to cislunar space, encompassing the region between earth and the moon , the lunar surface and the region around the moon. Some analysts contend that the space force needs to focus on this ‘blue water’ region. That argument builds on a policy paper released by US Air Force Space Command in 2019, which looked out to 2060 and considered an American military presence on the lunar surface and in cislunar space.

These competing visions of future space activity have fostered an interesting debate in Washington space policy circles. One school emphasises a focused ‘warfighting domain’ approach in the brown water to respond to the immediate challenge posed by Chinese and Russian anti-satellite weapons. The other camp espouses a more expansive blue-water vision that focuses on preventing Chinese dominance of a 21st-century space economy centered on the moon and its environs.

The brown-water approach give prominence to space resilience and deterrence. That means the US and its allies need space domain awareness through ground-based and space-based surveillance networks, but also an ability to respond to threats in space and ensure responsive space access.

Australia is well positioned to play a critical part in such operations. It already has a vital role in ground-based space surveillance with its Five Eyes intelligence-sharing partners (the US, Britain, Canada and New Zealand) and with Germany and France through the 2014 Combined Space Operations Initiative. Our commercial space sector is vibrant and growing and is poised to offer a sovereign space launch capability from the Northern Territory and South Australia. Numerous local space startups are developing small satellites and cubesats.

The blue-water vision for the US Space Force is much grander. It’s built on the prospect that both the US and China will have a sustained presence on and around the moon in coming decades, and that they’ll compete for resources and access to strategically important locations in space.

US President Donald Trump’s executive order on the recovery and use of space resources will strengthen the case of the blue-water advocates, as will NASA’s recently declared ‘Artemis Accords’ on regulatory arrangements for using space resources on and around the moon. The executive order, released in April, says, ‘[I]t shall be the policy of the United States to encourage international support for the public and private recovery and use of resources in outer space, consistent with applicable law.’

The order doesn’t see space as a global commons, which implies that the US is committed to supporting utilisation of space resources. The Artemis Accords make clear that any such use will be consistent with the key articles in the 1967 Outer Space Treaty. That sets up an interesting legal conundrum: how does one extract and control space resources without claiming ownership of the territory upon which they’re found? That conundrum builds on a policy direction originally initiated by the Obama administration’s 2015 Space Resources Act.

China’s plans for the moon remain unclear, but strong hints have emerged that it will seek to send it own astronauts, or taikonauts, to the lunar surface in the 2030s, if not before. Namrata Goswami and Peter Garretson both suggest a future of intensifying US–China competition on and around the moon. The blue-water vision for the US Space Force would align neatly with the Trump administration’s decision on space resource utilisation and ensure the US can counter any Chinese move to dominate the high ground of lunar orbit.

A US commercial space start-up, Rhea Space Activity, recently won a Defense Department contract to provide lunar intelligence gathering, or ‘lunint’, which would involve detecting and tracking a foreign state’s space activities in lunar orbit and on the moon’s surface. Interestingly, Rhea is supported by Saber Astronautics, which has offices in the US and Australia. The same types of capabilities that could allow Australia to contribute to burden-sharing in orbit with the US in the brown-water environment can also play a role in cislunar space.

Australia’s Defence Department is focused, rightly, on developing sovereign space capabilities for the defence force in satellite communications and space-based reconnaissance.

But Australia’s commercial space sector offers much more potential to support the US military in space, whether in the brown water or far out in the deep blue.

Australia’s space agency needs certainty

On 1 July, the Australian Space Agency, led by Dr Megan Clark AC, officially opened for business.

In the May 2018 budget, the Australian government allocated $41 million over four years to fund the establishment of a space agency. That amount includes $15 million for ‘partnering with international space agencies to enable Australian businesses to compete in the global space economy’. Jobs and Innovation Minister Michaelia Cash’s announcement is here.

The international space economy is expected to grow significantly in the coming decade, and the government’s aim is to triple Australia’s space industry to $10–12 billion by 2030.

The government’s intent for the agency is clear:

  • Its ambit is confined to civil and commercial space matters.
  • There’s no plan to change existing arrangements for departments and agencies that have well-established dependencies on and uses for satellite-based services and data; including Geoscience Australia, the Bureau of Meteorology and CSIRO.
  • Funded activities will be designed to encourage private interests to invest.

The agency’s funding beyond 2021–22 may well depend on how convincingly and quickly it can demonstrate its worth. The agency and the broader community will need to know the measures by which the success of the agency will be judged.

The government’s intent has been broadly supported by the opposition. Kim Carr, the shadow minister for innovation, industry, science and research, has pledged a slightly higher amount of money than has the government, and the Labor Party is committed to continuous funding for the agency. Labor’s policy may be viewed here.

Although the agency has been created and funded explicitly to achieve economic objectives, ASPI executive director Peter Jennings has pointed out that the industry today is well below critical mass and may struggle to become big enough to be self-sustaining. That’s not an argument not to have an agency; there is much for it to do in coordinating domestic efforts and contributing to international space governance.

Much of the commentary about the agency and the prospects for a local space industry has been led by astronomers, space scientists and engineers. Their comments, interest and advocacy are welcomed and there’s no question that they will play an important role as the sector develops.

The broader media response suggests that people outside the sector don’t make fine distinctions between satellites, human space flight, planetary science, astrophysics and the ‘Big Bang’. These topics are simply lumped together as ‘space’ and it’s all ‘cool’. That points to an enormous reservoir of community goodwill just waiting to be tapped by the agency.

Comment from industry representatives, in marked contrast to the science and academic communities, has been muted. The Space Industry Association of Australia, the industry’s peak advocacy body, has been proper and formal in its responses to the various announcements, but the exposure of spokespeople from the association in the national media has been limited. Except for one announcement from Lockheed Martin welcoming the creation of the agency, larger companies, which might conceivably become part of the Australian space sector’s success, have remained silent. Industry will need to become more vocal if the agency is to survive.

New South Wales, South Australia, Victoria, Western Australia and the ACT are jostling to host the space agency. Each contender has strengths, but none of them has such a compelling and comprehensive suite of capabilities and connections to warrant hosting a fledgling national institution. A bidding war is utterly counterproductive and the Commonwealth should put an end to it by simply stating that the agency will be headquartered in Canberra, not just for 12 months but permanently.

Beyond the noise, two matters demand fuller and more careful discussion.

First, how the new civil agency will relate to the defence and national security communities is vitally important. Almost all space technologies are dual use—that is, they can support both civilian and military activities. This has implications for investment, jobs, national self-sufficiency, and exports. Australia needs a national space strategy that embraces all aspects of space activity. The agency may be hamstrung in delivering this much-needed national perspective if undue emphasis is placed on the civil nature of its responsibilities.

Second, managing and mitigating space debris is also a profoundly dual activity. Space junk does not distinguish between military and non-military satellites. All are at risk. Australia, as much commentary has noted, is well placed to contribute to international efforts to manage and eventually mitigate the problem that space debris presents, especially in low-earth orbits. There’s a potential role for the agency to promote Australia as a lead nation for this activity as responsibility for space situational awareness and space traffic management moves progressively from the military to civilian sphere.

Space may be ‘cool’, but it’s not ‘special’. In this regard, the agency stands to make two important contributions: first, to normalise the conversation about space; and second, to serve as an insurance policy by helping to protect the millions of jobs across the economy that depend on access to the services and data provided by satellites. New jobs will come and might be best regarded as a bonus.

Dr Clark and her team are embarking on vital and noble work. I wish them well.

Avoiding a free-for-all: the Outer Space Treaty revisited

One theme considered at ASPI’s recent annual Building Australia’s Strategy for Space conference was the growing importance of space law as space becomes more contested, congested and competitive. The basis of space law remains the 1967 Outer Space Treaty (OST), but a lot has happened since it was signed. Perhaps it’s time to review and refresh the treaty.

Article IV of the OST states that:

States Parties to the Treaty undertake not to place in orbit around the Earth any objects carrying nuclear weapons or any other kinds of weapons of mass destruction, install such weapons on celestial bodies or station weapons in outer space in any other manner.

The moon and other celestial bodies shall be used … exclusively for peaceful purposes. The establishment of military bases, installations and fortifications, the testing of any type of weapons and the conduct of military manoeuvres on celestial bodies shall be forbidden …

Article IV doesn’t ban the weaponisation of space outright. Nor has there been any other legal agreement that bans such systems, despite ongoing international efforts in recent decades.

US adversaries (including China and Russia) are developing a suite of sophisticated counter-space capabilities, including direct ascent and co-orbital ‘hard kill’ and ‘soft kill’ systems (see here and here). The US and its allies must respond seriously to these challenges and protect their critical space-based infrastructure. A ‘space Pearl Harbor’ could quickly remove the traditional information-based war-fighting advantage of Western liberal democracies, leaving the US and its partners deaf, dumb and blind at the outset of a conflict.

Part of the solution is to bolster space deterrence, to dissuade the use of counter-space capabilities by adversaries. The US and its allies, including Australia, need to work together to achieve that objective.

Strengthening the 1967 OST’s provision on space weapons is also a must, but it will be difficult to get other major space powers such as China and Russia to agree to new legal constraints on capabilities that they’re already developing and testing.

It will also be difficult to get agreement on what a space weapon is and what constitutes a counter-space attack. Earth-based soft-kill systems—such as cyberattacks that could create scalable, reversible effects—offer deniability to the aggressor.

Article IV bans the militarisation of the moon and other celestial bodies by states, but it has a weakness: it allows ‘use of military personnel for scientific research or for other peaceful purposes’ and includes a vague statement that ‘use of any equipment or facility necessary for peaceful exploration of the moon and other celestial bodies shall also not be prohibited’.

Defining ‘peaceful purpose’ activities isn’t easy either, particularly when states such as China have space programs run by the military. As China looks towards crewed lunar missions by the 2030s, there’s a risk that it may exploit ‘grey zone’ phenomena on the high frontier in support of its national strategic ambitions, which include contesting the US advantage in space.

The OST was signed at a time when commercial space actors simply didn’t exist. However, Article VI implies the possibility of such actors:

States Parties to the Treaty shall bear international responsibility for national activities in outer space, including the moon and other celestial bodies, whether such activities are carried on by government agencies or by non-governmental entities, and for assuring that national activities are carried out in conformity with the provisions set forth in the present Treaty.

Yet that doesn’t address activities by commercial space corporations that are acting alone and independently of national guidance—or at least those that declare that they’re doing so.

For example, the potential resource wealth of the moon and near-Earth asteroids opens up the prospect for private space corporations to make vast profits from those resources. Article II of the OST says, ‘Outer space, including the moon and other celestial bodies, is not subject to national appropriation by claim of sovereignty, by means of use or occupation, or by other means.’ But what about the actions of private corporations, perhaps supported by private security contractors, that seek to safeguard a valuable resource claim? The OST does nothing to regulate the actions of such entities.

The US’s 2015 Space Act created opportunities for future lunar and asteroid mining by US commercial space companies, and US competitors aren’t likely to sit back and passively watch US companies gain an advantage. That implies a challenge to Article II of the OST, because acquiring a resource and then selling it for profit implies ownership.

If Article II is weakened indirectly through commercial activity, competitors may see an opportunity to claim territory on the moon and other celestial bodies. The rationale might be control of a valuable resource or exploitation of high ground in astrostrategic terrain for military advantage. That would undermine the OST at its most fundamental level.

This isn’t a justification for imposing draconian governmental or international regulation on the rapidly growing commercial space sector. Such a step would smother innovation and reduce incentives for commercial space activities, slowing the growth of a future off-Earth space industry. Going back to Space 1.0 is entirely the wrong path.

The OST needs to be updated to address some of the potential risks in a more contested, congested and competitive space domain extending from low-Earth orbit out to cislunar space and beyond. That would make the treaty more relevant to the future Space 2.0 paradigm in which the fastest progress is led by the commercial sector, a significant portion of which is untethered by government direction. In particular, managing the impact of new commercial space actors that will seek access to and profit from space resources should be a high priority if the OST is to remain relevant.

The 1979 Moon Treaty sought to expand on the OST and address some of its shortcomings. It wasn’t ratified by the US, the Russian Federation or China, and so isn’t binding. Alongside an updated OST, a new Moon Treaty that facilitates peaceful commercial activities on the moon and other celestial bodies would be a good step forward. But the updates need to address the shortcomings of both treaties. They should clearly delineate the boundaries between normal commercial activities in what should be a global commons and state or state-owned actors that could compete for national gain. The alternative is a free-for-all on the high frontier, with dangerous risks for major-power competition in a contested space environment.

China, the US and the race for space

The head of the Chinese lunar exploration program, Ye Peijian, has remarked that:

the universe is an ocean, the moon is the Diaoyu Islands, Mars is Huangyan Island. If we don’t go there now even though we’re capable of doing so, then we will be blamed by our descendants. If others go there, then they will take over, and you won’t be able to go even if you want to. This is reason enough.

His reference to the Senkaku Islands (Diaoyu  Islands) and Huangyan Island (Scarborough Shoal) suggests that China sees space in terms of astrostrategic terrain: the moon and Mars are places of astropolitical importance, rather than simply the focus of scientific exploration. Just as China sees control of the ‘first island chain’ in East Asia as vital to its maritime security, Ye’s comment suggests that these high grounds in space will bear directly on Chinese strategic interests in the coming decades.

Astropolitics is defined by Everett Dolman as ‘the study of the relationship between outer space terrain and technology and the development of political and military policy and strategy’. It contrasts with traditional geocentric approaches to space power, which focus on how space directly influences terrestrial affairs and downplays the vast astrostrategic terrain in cislunar space (the region between the Earth and the moon).

Astropolitics and astrostrategy are big ideas whose time is coming. The 2020s promise greater commercial and national activity from low-Earth orbit (LEO) to the moon and beyond, shifting mindsets from geocentric to space-centric thinking.

Ye Peijian is clearly thinking long term: Mars is distant and probably won’t be astropolitically significant for many decades, but the moon is more important, given its gravitational proximity to ‘near-Earth space’—the region from LEO out to geostationary orbit (GEO)—and its status as the highest natural ground above Earth’s gravity well.

It’s important to understand the astrostrategic terrain of space. Dolman notes:

What appears at first a featureless void is in fact a rich vista of gravitational mountains and valleys, oceans and rivers of resources and energy alternately dispersed and concentrated, broadly strewn danger zones of deadly radiation, and precisely placed peculiarities of astrodynamics.

Rather than being an infinite emptiness, space is delineated by gravitation and transfer trajectories, which constrain human activities in the same way as strategic maritime choke points. An actor that can control them can control access to resources of great value and strategic significance throughout the remainder of the 21st century.

Dolman relates astropolitics to Halford Mackinder’s early 20th-century ideas about geopolitics, which emerged as new technologies for ships, aircraft and railways were fast transforming advanced economies and thus power hierarchies. The driver for that change was a desire to control strategically important resources to gain comparative advantage over other states.

In the 2020s, there’s likely to be a similar recognition of the potential value of resources on the moon or on near-Earth asteroids, in addition to a requirement to control the LEO to GEO region. Under these circumstances, the traditional geocentric approach to space power will be increasingly challenged.

At the same time, space technology is being transformed through the introduction of lower cost reusable rockets, airborne launch systems and, on the horizon, hypersonic aerospace planes. Getting into space is becoming easier, quicker and cheaper, allowing more states and commercial actors to exploit it for geostrategic and commercial gain. Space is becoming more competitive and more congested as a result. It’s no sanctuary from human competition, and major-power conflict on the high frontier is becoming increasingly likely.

Into this complex astropolitical environment, President Donald Trump’s United States Space Force—another big idea—will emerge and evolve, probably over a similar timescale to the expansion of human activity to cislunar space in the 2020s.

There’s been a good deal of criticism—some thoughtful and some based on a kneejerk derision of Trump—about the idea of a US Space Force. The more thoughtful critiques have highlighted challenges in funding a sixth military force from an already constrained US defence budget. There are legitimate concerns about the need to avoid duplicating organisational structures and current US Air Force missions in space. Critics stress that the formation of a space force could severely disrupt the air force at a time of growing international uncertainty.

There’s also been criticism that a US Space Force would violate the 1967 Outer Space Treaty and related agreements. However, nothing in space law prevents the military use of space or the development of space weapons, provided they aren’t weapons of mass destruction or involve the military use of the moon and other celestial bodies. The Space Force per se wouldn’t violate the Outer Space Treaty, but there’s a growing threat that the treaty may come under increasing strain as major-power competition extends out to the cislunar region.

The formation of the US Air Force, which split from the US Army in 1947, was driven by operational experience in World War II, maturing technology and the strategic importance of the air domain. There’s been a similar maturing of thinking on space as an operational war-fighting domain in recent years, and, like the air domain of the 1940s, the space domain in the next decade will be highly contested. Maybe the space force is an idea whose time has come, and it shouldn’t be dismissed outright without deep consideration of the risks and opportunities.

That means it’s important to understand what’s driving Chinese aspirations. If the Chinese see the space domain in line with Dolman’s astropolitics thesis, Ye’s parallel of the moon and Mars with strategically contested terrain on Earth should make space thinkers in the West sit up and take notice. Control of the high frontier doesn’t need to end at GEO, particularly if the moon and other celestial bodies hold strategic wealth and value, and will be within easier reach by the end of the next decade.

The prospect of major-power competition on the high frontier may extend beyond GEO. Ye is making clear that either China will control the moon and other celestial bodies, or others will. The US and its allies must decide whether Chinese control of this high ground is acceptable. The US Space Force’s mission may be completely different from what the US Air Force currently does in space.

Tag Archive for: Space

US and Australian Women and Space Event with AWDC

Roundtable with the Space Industry Association of Australia

Who controls space will control the Earth – Bec Shrimpton interviewed by the Berlin Pulse

As the space race is on, Bec Shrimpton explains what is there to be gained and what stands to be lost

Körber-Stiftung: The world has many problems, from war and a food crisis to climate change. Why should people care about space?
Bec Shrimpton: It is important to understand what space offers! Many of the Earth’s major challenges can be addressed with space technologies. For example, up in space, the sun shines all the time. Once the infrastructure is established you could get continuous, almost free, reliable energy that could power more than the Earth’s entire requirements.

That sounds great. But it doesn’t help in an acute crisis, right?
It does. One more example: When Russia invaded Ukraine, the US communications company ViaSat was taken down by a massive Russian cyberattack. The Ukrainian government turned to Elon Musk’s Starlink. And Musk’s existing space based internet capabilities allowed Ukrainians to communicate with each other and the world, helping Ukraine defend itself against Russian aggression.

You mentioned Russia. In August 2023, the Russians failed to land a robotic probe on the moon’s south pole. But India succeeded. What is so important about the moon?
On the lunar south pole, there is believed to be one of the largest deposits of frozen water. And there might be a way to extract it. Till now, what has stopped us from going further into space is that we literally run out of fuel. There are no gas stations in space. But if you can access water on the moon, you can theoretically create rocket fuel. That allows the leap to Mars or other asteroids, and it could be the start of a genuine space economy. Up there you have mineral rich asteroids predicted to be worth multiple trillions of dollars.

Many countries have now recognized this potential. What does this mean for the balance of power in space?
Just as on Earth, we’re heading towards a multipolar space order. The United States still has significant military and commercial advantages. But, as in other industries and technological areas, China in particular and other emerging space powers like India are catching up rapidly.

What is China’s role in space?
China has now a huge civil, commercial and military space sector, and its ambitions are largely driven by geopolitics. China wants to command, dominate and to control space. And what holds true for the United States does also for China and India: Who controls space will control the Earth.

Can you give us examples of China’s action in space?
Take technologies to manage space junk, which someone’s got to go and clean up. China has the capacity to do that, and it developed ‘inspector’ satellites and other technologies including robotic arms that can ‘grab’ space junk to remove it. But that also means it can catch US military satellites and potentially exploit or destroy them. China is beginning to produce these kinds of capabilities at a scale and a speed that is worrying actors like the United States.

So why did Australia then scale back its space strategy from 2018, which aimed at fostering its space industry?
The Australian government has dramatically cut the spending for our civil and commercial space program, because it wanted to be fiscally responsible. For me, that was a short term decision that we will regret.

Why?
Because we must make our stamp on the space economy and take our place in the global space race. Of course, investing in spaceports or manufacturing capabilities is expensive. Now there is a window to create the basis for a strong position in the global space economy. But that window will close as others move while Australia stands still. In my view, Australia could have become a space superpower.

What about Germany?
Germany is a considerable space power. It has excellent capabilities in the civil, the commercial and the military sectors, from which we can learn. And Australia can offer Germany access to space and unique collaboration operations, especially in terms of launching. We have wide open spaces, a huge coastline and low air and maritime traffic.

How do you see Germany’s diplomatic role in space?
Very active! We cooperate with Germany in fora like the United Nations to try and establish rules and norms. We collaborate with Germany and France in military space through a Five Eyes Plus grouping led by the United States and it is highly beneficial to all countries. And Germany’s strength is that it can build consensus among those actors.

Australia and Germany both want to maintain a democratic space order. But the world on Earth is not just made up of democracies.
Australia’s wants to see its values and interests protected in space, as they are on Earth. This doesn’t necessarily mean that space should be democratic, but we believe that the liberal democratic principles we have on Earth should extend to space. Current treaties, such as the Outer Space Treaty, are not designed for the increased commercialization and militarization of space. So we need to set new standards for responsible behaviour. And this is an area ripe for greater cooperation between Australia and Germany.

Read more from the Berlin Pulse here.

Dr Malcolm Davis on The Space Show

ASPI’s Dr Malcolm Davis was guest on this episode of The Space Show podcast.

In this podcast, Dr Davis discusses Australian commercial space development, national policy and space security, space defense issues.

You can hear the episode here.

The challenges and opportunities facing the Australian defence sector

Dr Malcolm Davis recently spoke with on the Defence Connect Podcast at the Avalon International Airshow on the topic of the challenges facing the Australian defence landscape. 

Listen to the audio here.