The Orbital Economy: A $1.8 Trillion Market With No Rules

The market has arrived before the rulebook

In low Earth orbit, congestion is no longer a forecast. It is a fact measured in metal, radio spectrum and evasive manoeuvres. SpaceX has launched more than 6,000 Starlink satellites, with thousands active in service, reshaping global broadband and the geometry of near-Earth space. NASA is preparing Artemis missions to return humans to the Moon. China’s Chang’e programme has moved steadily from lunar orbit to sample return and far-side operations. Blue Origin has set out ambitions for commercial stations and, over the longer term, orbital habitats. Varda Space Industries is already testing pharmaceutical and materials manufacturing in orbit. A market once defined by sovereign prestige is becoming an industrial system.

Morgan Stanley has projected that the global space economy could reach $1.8 trillion by 2035. One may debate the exact number; the direction of travel is harder to dispute. Launch costs have fallen, spacecraft are smaller, software is better, capital is more willing, and commercial demand now extends far beyond telecommunications into Earth observation, logistics, servicing, navigation, research, manufacturing and tourism.

Yet much of this expansion is still governed by legal architecture drafted for another era. The backbone remains the 1967 Outer Space Treaty, negotiated when space was principally a contest between superpowers, not a crowded commercial domain filled with private platforms, autonomous robots and globally integrated data markets. The treaty was a diplomatic triumph. It is also, by contemporary standards, sparse.

That mismatch matters because the next phase of the orbital economy will not merely involve more satellites. It will involve persistent off-world operations: vehicles making local decisions, factories running with limited human supervision, mining missions prospecting for resources, tourist platforms managing safety and liability, and mixed public-private infrastructure carrying strategic importance. The problem is not simply that there are too few rules. It is that the rules we do have were written for launching objects, not for governing complex behaviour.

A legal order built for states, stretched by firms

The core principles of space law remain clear enough. The Outer Space Treaty holds that outer space is the province of all humankind; that it is free for exploration and use by all states without discrimination; that it is not subject to national appropriation by claim of sovereignty, use, occupation or any other means; and that states bear international responsibility for national activities in outer space, whether conducted by governmental or non-governmental entities. The treaty also places liability and registration obligations on launching states, and requires due regard for the interests of others.

These are profound principles. They helped prevent outright territorial partition in orbit and beyond. But they leave unanswered a series of questions that have become commercially urgent.

• What does “use” permit when activity shades into extraction?
• How should “due regard” be applied in congested orbital shells?
• What counts as harmful interference when spectrum, observation and proximity operations overlap?
• How should states supervise non-governmental entities whose systems operate autonomously and at scale?
• What happens when a private mission spans multiple jurisdictions, insurers, launch providers, cloud systems and autonomous software stacks?

The 1979 Moon Agreement attempted to go further, especially on the Moon and celestial resources, declaring the Moon and its natural resources the common heritage of humankind and envisioning an international regime for exploitation. But it never secured support from the major spacefaring powers. Its legal significance remains real, but its practical reach is limited.

The Artemis Accords, first signed in 2020 and since joined by a growing number of states, have become the most consequential soft-law instrument in current lunar governance. They articulate principles on interoperability, transparency, emergency assistance, registration, release of scientific data, preservation of outer space heritage and the use of “safety zones” to avoid harmful interference. They are politically important. They are not, however, a universal settlement. China is not a signatory; nor are all major states. The Accords reflect a coalition, not a complete constitutional order for space.

This leaves the orbital and cislunar economy in a familiar modern condition: high capital intensity, strategic significance, and partial governance. On Earth, such gaps are often bridged by regulation, technical standards, liability rules, market infrastructure and common compliance protocols. In space, those layers are still thin.

The real governance deficit is operational

It is tempting to treat space governance as a problem of treaties alone. In practice, the sharper deficit is operational. The question is not merely who owns what, but how decisions are made and constrained in environments where delay, distance and complexity make real-time human oversight difficult.

Consider what is now emerging.

A satellite constellation does not behave like a single satellite. It is a dynamic network requiring collision avoidance, spectrum coordination, software updates, deorbit planning and increasingly automated fleet management. An orbital manufacturing platform may need to adjust processes in microgravity, allocate power, handle anomalies and determine whether a product batch is within tolerance. A lunar rover prospecting for water ice may traverse terrain, gather samples, classify material, relay data and negotiate limited bandwidth. A commercial station hosting researchers and tourists will need layers of safety, access control, medical triage, environmental monitoring and emergency procedure.

In each case, the system that matters is not just a physical object. It is a decision stack: sensors, models, operators, permissions, logs, contractual obligations and machine autonomy. That stack crosses corporate boundaries and national jurisdictions. A launch may be licensed in one country, insured in another, financed in a third, command-routed through several more and partially controlled by software components developed across a global supply chain.

The law still tends to imagine a simpler world: a state authorises a mission, registers an object and remains responsible. Formally, that remains true. Operationally, it is no longer sufficient.

Space law tells us who is responsible in principle. The next decade will turn on whether we can specify who is allowed to decide in practice.

This is where orbital governance begins to resemble digital governance, critical infrastructure governance and financial market governance. It needs not just lofty principles, but machine-readable rules; not just ex post liability, but ex ante permissions; not just broad state responsibility, but verifiable conformance in the systems that actually act.

Three flashpoints: resources, traffic and autonomy

Resources without sovereignty

The thorniest issue in space commerce is resource extraction. The Outer Space Treaty bars national appropriation of celestial bodies, but many lawyers and governments argue that this does not necessarily prohibit the extraction and ownership of resources once removed, much as fishing does not amount to sovereignty over the high seas. The United States codified support for commercial recovery of space resources in 2015. Luxembourg, the United Arab Emirates and others have pursued similar approaches.

Space law tells us who is responsible in principle. The next decade will turn on whether we can specify who is allowed to decide in practice.

Critics argue that unilateral national legislation risks creating a de facto enclosure regime by the back door, especially if first movers gain practical control over scarce sites, transport corridors or strategically valuable resources such as lunar ice. Supporters reply that no serious private investment will materialise without at least some expectation that recovered resources can be owned, sold or used.

Both sides are right about different things. Investment requires clarity; legitimacy requires restraint. The absence of a widely accepted multilateral framework means that commercial practice may race ahead of collective consent.

NASA’s Artemis programme, with its focus on the lunar south pole and sustained presence, sharpens these questions. So do China’s lunar ambitions and the prospect of multiple powers developing parallel infrastructure. The issue is not imminent interplanetary gold rush theatrics. It is subtler: how operational precedence, technical standards and logistics networks can harden into durable advantage before law catches up.

Traffic without trusted coordination

Orbital debris and space traffic management are more immediate. Low Earth orbit is increasingly crowded, and debris from fragmentation events and anti-satellite tests has demonstrated how quickly the environment can worsen. The European Space Agency, NASA and others have repeatedly warned that collision risk is rising as object counts increase.

Today’s coordination relies on a patchwork: national military and civil tracking, bilateral operator exchanges, voluntary guidelines, licensing conditions and best-effort communications. That is not nothing. It is also not a mature traffic regime.

A proper system would require at least four things:

• reliable shared awareness of objects and trajectories;
• standardised communication of manoeuvre intent;
• priority and liability rules when operators disagree;
• credible obligations for end-of-life disposal and debris mitigation.

The challenge becomes harder when decisions are made by software. If two satellite operators use autonomous collision-avoidance systems, who validates the logic? If a manoeuvre designed to avoid one conjunction creates another, how is responsibility assessed? If a platform fails to deorbit because of software corruption, is that a licensing breach, a product defect or an insurable accident?

These are not theoretical puzzles for a distant age. They are infrastructure questions for the present market.

Autonomy without constitutional limits

The most underappreciated flashpoint is autonomy. Space systems have always included automation. What is changing is the degree of discretion delegated to software, particularly as AI models improve planning, classification, anomaly response and mission optimisation.

An autonomous off-world system may be asked to do things that are economically rational but legally ambiguous: re-route around a zone another operator treats as sensitive; gather data near a commercial installation; reprioritise communications under bandwidth stress; perform repair or capture operations close to a third-party asset; classify a sample in ways that affect a resource claim; or manage life-support trade-offs on a commercial station.

None of this requires science fiction. It requires only the plausible extension of capabilities already visible in robotics, computer vision, mission planning and edge computing.

The risk is not machine rebellion. It is unaudited delegated discretion in places where the legal and political stakes are high.

Why old governance tools will fail in orbit

Most regulatory systems on Earth assume one or more of the following: dense human institutions, rapid enforcement, physical inspection, stable jurisdiction and reliable after-the-fact remediation. Orbit offers the reverse. Communication may be delayed or intermittent. Inspection is costly. Damage may be irreversible. Jurisdiction is layered and contested. Evidence may be dispersed across software logs, spacecraft telemetry, cloud systems and contractors.

That changes what good governance looks like. It must become more preventive, more technical and more explicit about authority.

This is the deeper relevance of The Sovereign Standard. It is not a legal authority over space, nor a replacement for treaties. It is a proposed, open framework for retaining sovereignty in the AI age across identity, data, money, health, governance and frontier domains such as space. Its value in the orbital context is conceptual: it treats sovereignty not as a slogan, but as a design problem.

In practice, that means asking a set of questions conventional space law only partially answers.

• Who is the recognised actor behind a machine decision?
• What authority has been delegated, by whom, and with what limits?
• Which data may be collected, processed or transferred?
• What record exists of decisions, exceptions and overrides?
• How can permissions be revoked if circumstances change?

Those are the questions that determine whether an off-world system remains governable when it is far away, partially autonomous and commercially valuable.

F-ACT: governing agents before they act

In orbit, autonomy without identity is a hazard; autonomy without audit is a liability.

Within the Sovereign Standard, the specific agent-governance pillar is F-ACT, the Framework for Agent Conformance & Trust. It is narrow where the broader framework is expansive: a neutral, open, vendor-neutral standard for governing AI agents and agentic systems.

Its normative core is ASDAR: Authority, Scope, Data, Audit, Revocation.

• Authority asks who empowered the agent to act.
• Scope defines what the agent may and may not do.
• Data governs which information it may access, process or transmit.
• Audit requires a verifiable record of decisions and actions.
• Revocation ensures permissions can be withdrawn or constrained.

The defining principle is simple: govern before execution — not after.

That principle is unusually apt for space. An orbital manufacturing platform cannot wait for a courtroom to determine whether its software exceeded authority. A lunar logistics agent cannot negotiate constitutional ambiguity in real time. A satellite fleet cannot rely on improvised governance when conjunction warnings arrive by the hundred.

F-ACT’s conformance tiers — L0 Unattested, L1 Declared, L2 Enforced, L3 Provable — offer a practical ladder. In low-risk applications, a declared governance posture may suffice. In high-risk contexts such as collision avoidance, life-support control, proximity operations or resource custody, stronger enforcement and provability become more appropriate.

One can imagine concrete off-world uses.

• A servicing vehicle may be cryptographically limited to approach only pre-authorised targets within defined corridors.
• A manufacturing agent may be permitted to alter process parameters within tolerance bands, but not to change output destination or ownership metadata.
• A lunar rover may classify samples and trigger requests for human review, but be barred from asserting custody changes without multi-party authorisation.
• A station-management agent may optimise environmental controls while preserving hard safety constraints and complete audit logs.

This does not replace public law. It operationalises governance inside machines and workflows that public law increasingly cannot see directly.

The 42 Protocols as the implementation layer

Standards matter only if they can be deployed. This is where the 42 Protocols enter the picture. They are Society OS’s implementation mechanism: the stack that operationalises the Sovereign Standard across six domains — Individual, Economy, Enterprise, State, Mind, Infrastructure. In the frontier context, they provide a way to express identity, trust and execution rules in systems that span Earth and orbit.

Their leading triad, the Sovereign Trinity, is particularly relevant.

• Human-Twin-Agent identity establishes who acts, through which human, digital twin and agent relationship.
• HEARTrank helps determine what is trusted, by whom and on what basis.
• WISE Contracts aim to execute law, not merely code, binding machine behaviour to recognised rules and permissions.

Applied to space, this suggests a more rigorous operating model for commercial missions. A spacecraft, rover or station subsystem should not be treated as a free-floating software artefact. It should be bound to an identity chain, a trust framework and an executable rule structure that can be inspected, constrained and, where necessary, revoked.

In that sense, the 42 Protocols are not “space law”. They are implementation architecture for lawful, auditable action in environments where conventional legal oversight is weak. They help convert abstract obligations into governed machine behaviour.

That matters because the orbital economy will increasingly be run by what might be called a governed agent network: not a single superintelligence, but thousands of bounded systems making local decisions in logistics, navigation, manufacturing, communications, sensing and maintenance. The quality of the market will depend on whether those systems are interoperable and accountable.

In orbit, autonomy without identity is a hazard; autonomy without audit is a liability.

The frontier cluster of the Sovereign Stack therefore should be understood not as an imperial claim over new domains, but as a practical extension of governance design into places where old institutional assumptions no longer hold.

What a credible orbital rulebook should contain

The orbital economy does not need a grand constitutional convention before it can improve governance. It needs layered progress: public law, diplomatic practice, technical standards and machine-enforceable controls evolving together.

A credible next-generation framework would include at least seven elements.

1. Clear licensing for autonomous functions

States should specify which mission functions may be delegated to software, under what conditions, with what fail-safes and with what evidentiary logging requirements. Authorisation should distinguish between advisory AI and systems empowered to act.

The first durable wealth in space will belong not only to those who can reach orbit, but to those who can make action there trustworthy.

2. Interoperable identity for off-world systems

Every commercially significant space asset should have a durable identity chain linking operator, beneficial control, software authority and command pathways. This is where Human-Twin-Agent models become especially useful.

3. Standardised auditability

Critical decisions by autonomous systems should produce tamper-evident logs, synchronised where possible with ground systems, for later inspection by operators, insurers and regulators.

4. Revocation and emergency override

Permissions should be capable of being narrowed or withdrawn, including under degraded conditions. A system that cannot be governed under stress is not meaningfully governed at all.

5. Rules for proximity and servicing operations

As on-orbit servicing, assembly and debris removal grow, states and operators will need common protocols for consent, approach, standoff, inspection and liability.

6. Resource-use norms before resource dependence

Before lunar or asteroid extraction becomes economically entrenched, states should define baseline principles on notice, environmental regard, non-exclusion, scientific disclosure and dispute handling.

7. Shared technical conformance layers

This is the domain in which open standards such as F-ACT can contribute. Not by substituting for treaties, but by making governance portable across vendors, jurisdictions and mission types.

These steps will not eliminate conflict. They will, however, reduce ambiguity at the moment decisions are taken, which is where most costly failures begin.

The next contest is over legitimacy, not just launch

For most of the space age, success was measured in launch capability, payload mass and mission prestige. Those metrics still matter. But as the orbital economy matures, legitimacy will become equally important.

Which operators will insurers trust? Which autonomous systems will regulators license? Which mission logs will courts and arbitrators accept? Which resource claims will trading partners recognise? Which station or habitat operator will tourists, researchers and pharmaceutical companies treat as safe and dependable? Which cislunar logistics networks will states rely upon without fearing opaque machine behaviour?

These are governance questions with commercial consequences.

History suggests that markets do not flourish merely because technology works. They flourish when participants can rely on shared expectations about identity, permission, accountability and remedy. Shipping needed maritime law, finance needed clearing and disclosure, aviation needed airworthiness and traffic control, the internet needed protocols. Space will need its own equivalent stack.

That stack will not arrive in one document. It will emerge from treaties, national statutes, agency licences, insurance terms, technical standards, operator practice and, increasingly, software architecture. The danger is that the software layer hardens first, setting norms by private implementation before public legitimacy catches up.

That is why the argument for the Sovereign Standard, and for implementation layers such as the 42 Protocols with F-ACT inside them, deserves attention now. Not because they are law, and certainly not because they override existing institutions, but because they offer a disciplined way to think about sovereignty where action is increasingly delegated to machines.

Space is one application of that problem, not its definition. But it is a revealing one. In orbit, the distance between decision and consequence is unforgiving. The actors are multiplying. The assets are expensive. The environment is fragile. And the rules remain, in too many respects, aspirational.

The orbital economy may indeed reach $1.8 trillion by 2035. If it does, the decisive scarcity may not be launch capacity or venture capital. It may be governable legitimacy: the ability to prove who acted, under what authority, within which limits, and with what recourse when things go wrong.

The first durable wealth in space will belong not only to those who can reach orbit, but to those who can make action there trustworthy.

The market has taken off. The rulebook still needs to catch up.