Space governance is commonly narrated through hardware and high politics: launch vehicles, anti-satellite tests, lunar ambitions, strategic rivalry. Yet by mid-2026 the more consequential struggle may be epistemic. It concerns the construction of a shared—or at least usable—record of orbital reality: what is up there, where it is, what it is doing, who is responsible for it, and how confidently any of that can be said. In an increasingly crowded orbital environment, the politics of measurement is becoming the politics of order.
This is not a semantic shift. Commercial constellations have multiplied the number of active spacecraft. Defence agencies monitor manoeuvres with growing suspicion. Civil operators rely on conjunction warnings generated by a mix of public and private tracking systems. Regulators, insurers and courts all face versions of the same problem: if orbital activity cannot be observed and verified in a manner that others recognise as legitimate, governance remains brittle even where legal principles already exist.
The result is a paradox. Space law is often described as underdeveloped, and in certain respects it is. But many near-term governance failures stem less from a total absence of rules than from weak infrastructures for evidencing compliance, assigning responsibility and settling factual disputes. In orbit, legitimacy increasingly follows legibility.
From frontier mythology to bureaucratic reality
The foundational treaties of space law were drafted for a sparse orbital age. The Outer Space Treaty and the Liability Convention establish broad principles: states bear responsibility for national activities, retain jurisdiction over registered objects and may incur liability for damage caused by those objects. Those provisions remain important, but they presuppose a degree of factual clarity that is harder to secure in a dense, fast-changing orbital environment.
Today, registration records may be incomplete, delayed or insufficiently granular for operational purposes. Objects fragment, drift, manoeuvre and change mission profiles. Satellites can approach one another for servicing, inspection or ambiguous purposes. Debris fields evolve over time. In geostationary orbit, radiofrequency disputes can blur into questions of spacecraft behaviour. In low Earth orbit, collision avoidance depends on constant data exchange and interpretation. Governance therefore becomes administrative before it becomes diplomatic. It depends on accurate catalogues, common definitions, event reporting norms and a degree of trust in the institutions that maintain them.
This is an unfashionable way to think about power in space. It lacks the drama of a launch or a treaty summit. Yet most mature regulatory orders are built on routine acts of enumeration, classification and audit. Merchant shipping depends on registries, hydrographic charts and inspection regimes. Civil aviation rests on transponder standards, airworthiness certification and incident reporting. Orbital activity is moving, slowly and unevenly, towards a similar condition.
The orbital data gap
The phrase space traffic management suggests a coherent system. In practice, the world still relies on a patchwork. Public military sensors, civil agencies, academic observatories and private tracking firms generate overlapping but non-identical pictures of the orbital environment. Different actors use different sensor mixes, orbital models, confidence thresholds and update cycles. The same object may be characterised differently across catalogues; the same close approach may produce diverging risk assessments.
Such discrepancies matter because operational decisions are time-sensitive and expensive. A collision avoidance manoeuvre can consume fuel, interrupt service and shorten satellite life. An unnecessary manoeuvre is costly; a delayed one may be catastrophic. As the number of conjunction alerts rises, operators face a problem familiar from other high-volume warning systems: signal competes with noise. If data quality, provenance and uncertainty are not well communicated, warnings can be mistrusted or ignored.
The US move to transfer civil space traffic coordination functions towards the Department of Commerce and its TraCSS programme reflected recognition that military tracking alone is not a sufficient basis for a global civil coordination role. Europe, Japan and others have also expanded surveillance and tracking capabilities. Meanwhile, commercial providers have become indispensable sources of high-frequency observations and analytics. The immediate benefit is redundancy. The strategic consequence is pluralism: there is no single authoritative picture of orbit, only competing claims to authority.
The problem is no longer merely congestion in space, but contention over whose picture of congestion counts.
Why verification is the new strategic asset
Once multiple actors can place satellites in orbit, the advantage shifts towards those that can verify behaviour at scale. Verification has at least four dimensions. The first is positional: tracking where an object is. The second is functional: understanding what it is designed to do. The third is behavioural: interpreting what it is actually doing over time. The fourth is juridical: tying those observations to a responsible entity under an accepted framework of registration and control.
In orbit, legitimacy increasingly follows legibility.
These dimensions do not align neatly. A satellite can be well tracked yet poorly understood. Ownership can be formally clear while operational control is opaque. A rendezvous mission can be technically legitimate but politically destabilising if others cannot distinguish servicing from interference. In this respect, space resembles cyber governance: attribution is rarely impossible, but it is often contested, probabilistic and politically mediated.
The strategic premium on verification is therefore rising across domains. Insurers need it to price risk. Investors need it to assess operational resilience. Regulators need it to enforce debris mitigation and spectrum obligations. Armed forces need it to identify potentially hostile activity without escalating on the basis of ambiguous signals. Diplomats need it to support confidence-building measures with something more substantial than declarations.
This creates an unusual governance market. Data is generated commercially, but authority is often still expected from states or intergovernmental bodies. Private firms may be technically superior in some forms of tracking, yet public institutions remain the venues where liability is assigned and norms are recognised. The central question is not whether public or private systems will dominate; it is how their outputs can be made interoperable, auditable and credible across borders.
Debris is not only a physical hazard but an informational one
Orbital debris is usually discussed in material terms: fragmentation, collision cascades, launch constraints. Those concerns are real and intensifying, as European Space Agency reporting continues to show. But debris is also an informational problem. Small fragments are difficult to detect consistently. Fragmentation events are not always immediately characterised. The causal chain from an operational choice to a future collision risk may be dispersed across years and many actors.
That makes accountability difficult. Debris mitigation guidelines exist, including through the UN Committee on the Peaceful Uses of Outer Space and national licensing regimes. Yet compliance is only meaningful if disposal plans, post-mission performance and anomalous events can be compared against reliable observation. Otherwise, sustainability remains largely declaratory.
The same applies to active debris removal and on-orbit servicing. These are often proposed as technical remedies to congestion. They may indeed become part of the solution. But they also introduce new governance complexities because vehicles capable of grappling, towing or de-orbiting objects are inherently dual-use. An ecosystem that lacks trusted verification mechanisms will struggle to distinguish maintenance from manipulation. Far from reducing political risk automatically, remediation technologies can sharpen it unless accompanied by transparent operating standards and verifiable disclosure.
The registration regime is showing its age
One neglected weakness in the current order lies in the modesty of existing registration practices. The UN Register of Objects Launched into Outer Space performs an important legal and diplomatic function, but it was not designed as a real-time operational backbone. National registries vary in quality and timeliness. Information about spacecraft ownership, beneficial control, mission change and end-of-life status can be harder to establish than one might expect in a sector commonly portrayed as technologically pristine.
This gap matters because registration is the hinge between legal responsibility and observed behaviour. If a satellite's operator changes, if a vehicle is leased, if a payload is hosted across multiple contractual layers, or if a spacecraft is repurposed, the clean lines imagined by mid-twentieth-century treaties become harder to map onto present practice. States remain internationally responsible for national activities, including those of non-governmental entities, but practical supervision depends on administrative capacity that not all launching states possess equally.
An orbital census worthy of the name would therefore require more than better telescopes. It would need richer object-level disclosures, standard event taxonomies, machine-readable registries and clearer rules on updates when operational circumstances change. None of this is glamorous. All of it is foundational.
The hidden politics of standards
Where treaties move slowly, standards often advance quietly. Technical and procedural standards determine what is reportable, what is comparable and what counts as due care. Definitions of close approach, preferred data formats, covariance reporting, manoeuvre notification protocols and disposal verification methods all shape behaviour long before they are codified in binding international law.
Standards also redistribute power. If one jurisdiction's reporting schema becomes the default in insurance contracts or procurement requirements, it can acquire quasi-global influence. If one set of sustainability metrics becomes embedded in lending decisions or launch services, operators may adapt even absent formal legal compulsion. The emergence of initiatives such as the Space Sustainability Rating points to a wider trend in governance: hybrid systems in which market access, reputational incentives and technical disclosure begin to supplement treaty law.
This hybridisation has advantages. It can be quicker, more iterative and better aligned with operational realities. But it also raises legitimacy questions. Who designs the metric? Which capabilities does it assume? Which operators can bear the reporting burden? Smaller states and newer entrants may reasonably worry that standards framed as neutral can lock in the preferences and infrastructures of incumbent space powers or well-capitalised firms.
The problem is no longer merely congestion in space, but contention over whose picture of congestion counts.
A credible orbital order will depend less on a single grand bargain than on interoperable practices of observation, attribution and disclosure.
Artificial intelligence enters the chain of custody
As the volume of observational data grows, artificial intelligence and automated analytics are becoming integral to orbital awareness. They assist with object detection, track correlation, anomaly identification and manoeuvre prediction. In a crowded environment this is not optional; human-only analysis does not scale. Yet the incorporation of AI creates a governance challenge of its own: how should automated judgements be validated when they inform operational warnings, regulatory scrutiny or diplomatic accusations?
The issue is less about speculative autonomous warfare than about mundane analytical dependency. If a conjunction alert is generated through proprietary models trained on heterogeneous sensor data, what level of explainability is required before another operator acts? If behaviour-classification systems flag a satellite as suspicious, what standards of review should apply? The NIST AI Risk Management Framework is not space-specific, but its emphasis on validity, reliability, transparency and accountability is increasingly relevant to orbital governance.
In effect, AI becomes part of the chain of custody for space facts. That requires institutions to distinguish between automation that aids decision-making and automation that obscures the basis of decision-making. For insurers, regulators and ministries, model governance may become as important as telescope aperture. States that cannot interrogate how orbital analytics are produced may find themselves dependent on black-box assessments in matters touching national security and international responsibility.
Security competition is pushing civil governance forward
It is tempting to separate civil space governance from military rivalry. In practice the two are entangled. Counterspace concerns, proximity operations and strategic ambiguity have increased demand for better domain awareness. Governments that might once have viewed orbital transparency as mainly a commercial convenience now see it as a component of deterrence and crisis management. Better records reduce the room for opportunistic denial; they may also lower the risk of misinterpretation during tense encounters.
There is, however, a limit to what transparency alone can achieve. States will not disclose all capabilities, and some ambiguity will remain intentional. The realistic aim is not perfect openness but bounded uncertainty: enough shared factual infrastructure to narrow disputes over what happened, even if disputes over why it happened persist. In maritime security, states do not eliminate espionage or coercion, but they do rely on common navigational conventions and reporting systems to reduce accidental escalation. Space is moving towards an analogous need.
That is why apparently technical debates over conjunction data sharing and manoeuvre notification are in fact constitutional arguments about orbital order. They determine whether future incidents are handled as manageable traffic problems, coercive probes or casus belli. Measurement does not resolve political conflict, but poor measurement can intensify it.
Middle powers have more room to shape the order than they assume
The common assumption is that only the largest space powers can write the rules. That is too narrow. In a governance environment increasingly organised around data quality, reporting norms and certification practices, middle powers can exert outsized influence. They can do so through licensing requirements, procurement standards, public registries, regional surveillance networks and diplomatic entrepreneurship in technical forums.
Jurisdictions with credible regulatory institutions may become trusted brokers of orbital information even without commanding the largest launch sectors. They can sponsor interoperable data-sharing architectures, insist on post-mission disposal reporting, require audit trails for automated collision warnings, or tie public contracts to disclosure standards. Because these tools operate through administration rather than grand strategy, they are often politically feasible where treaty revision is not.
This does not make power disappear. Sensor infrastructure, industrial capacity and intelligence capabilities still matter. But it changes the menu of influence. The state that cannot match another's launch cadence may still shape what counts as a responsible operator, what evidence supports a liability claim, and what records are accepted in a dispute. In orbit, authority may increasingly attach to stewardship of trusted records.
What a serious orbital census would entail
If the metaphor of an orbital census is to be useful, it must imply more than an enlarged object catalogue. A serious census would combine observation, metadata and governance process. At minimum it would require:
A credible orbital order will depend less on a single grand bargain than on interoperable practices of observation, attribution and disclosure.
- Persistent multi-source tracking that can detect, update and cross-validate object positions across orbital regimes.
- Standardised object identities linking observational records to launch, registration and operator information over time.
- Event reporting protocols for manoeuvres, anomalies, break-ups, disposal attempts and changes in mission profile.
- Uncertainty disclosure so users understand confidence levels rather than receiving decontextualised alerts.
- Auditability for analytical tools, especially where machine learning influences warnings or classifications.
- Dispute-resolution pathways allowing competing data claims to be reviewed without requiring a geopolitical crisis to force the issue.
None of these elements requires a utopian level of international harmony. Most can emerge incrementally through licensing, standards bodies, insurance practice, procurement conditions and selective bilateral or multilateral agreements. The obstacle is less conceptual than institutional. Orbital governance has often preferred lofty principle to clerical precision; the next phase will need both.
From open access to accountable presence
For decades, the central achievement of space law was to preserve access: outer space was not to become a domain of national appropriation. That principle remains vital. But as orbital activity thickens, the practical governance challenge changes. The key issue is no longer simply who may go, but under what evidentiary conditions they may remain, manoeuvre, interact and exit.
That points towards a concept of accountable presence. To be a legitimate actor in crowded orbits, an operator may increasingly be expected to be observable, identifiable and responsive to common reporting norms. This would represent a subtle but significant evolution in the political economy of space. The cost of entry would no longer be defined only by launch and manufacturing; it would also include compliance with information duties.
Critics will object that such a system could privilege richer actors and burden emerging space nations. The objection is serious. Any new reporting architecture should be designed with graduated obligations, capacity-building support and safeguards against proprietary overreach. Yet the alternative is not an egalitarian free-for-all. It is an opaque environment in which the best-resourced actors retain informational advantages while everyone else navigates uncertainty.
The future of space governance will look unexpectedly terrestrial
The next decisive advances in space governance may therefore resemble the construction of mundane state capacity on Earth: census-taking, standard-setting, audit, certification, record-keeping and administrative review. These functions rarely command public imagination, but they are what allow complex systems to operate without constant recourse to coercion or crisis diplomacy.
For all the rhetoric of a new space age, the hard question by mid-2026 is almost Weberian. Can institutions build an authoritative enough picture of orbital activity to make responsibility meaningful? If not, liability regimes will remain underused, sustainability pledges weakly enforced and security misunderstandings more dangerous than they need to be. If yes, a more resilient order may emerge even without a dramatic new treaty settlement.
The frontier image of space has always concealed the dense paperwork that follows settlement. The orbital era is reaching that point. The actors that matter most over the coming decade may not simply be those that place more objects above the atmosphere, but those that help the world agree on what, precisely, is there. In orbit, legitimacy increasingly follows legibility.
