When a rocket body slammed into the lunar surface in 2022, the impact did more than just leave an 18-metre scar on the moon. It exposed the flimsy regulatory framework governing how private corporations conduct deep-space operations. While NASA imagery confirmed the crater, the actual physics of the event and the subsequent bureaucratic silence tell a far more uncomfortable story about our headlong rush back to the lunar surface.
For years, the lunar environment was considered a government-exclusive domain. Space agencies tracked every screw, propellant tank, and spent stage with meticulous precision. When a mission ended, there was a plan for disposal. The SpaceX Falcon 9 upper stage that hit the moon was not part of that controlled era. It was a leftover piece of a 2015 mission, a derelict piece of hardware that had been tumbling through gravity wells for seven years. You might also find this connected article useful: Why Apple Finally Stopped Fighting the European Union.
The collision was not a technical failure in the traditional sense. It was a mathematical inevitability. Once the second stage finished its primary task of sending the Deep Space Climate Observatory toward its Lagrange point, it lacked the fuel to return to Earth or escape the Earth-Moon system. It entered a chaotic orbit, a gravitational graveyard shift. Experts had tracked the object for years, watching its trajectory decay until it finally intersected with the Hertzsprung crater on the far side of the moon.
This incident highlights a major vulnerability in our current approach to spaceflight. We are treating the cislunar space—the region between Earth and the moon—as an infinite dumping ground. If a piece of metal can wander unchecked through that volume for seven years before striking a celestial body, we are flying blind. The current systems for monitoring space debris are optimized for low Earth orbit, where satellites are at risk of collisions. Once you move past the moon’s orbit, the monitoring infrastructure thins out dramatically. As reported in detailed reports by ZDNet, the results are notable.
The physics of the impact itself were significant. Moving at approximately 2.58 kilometres per second, the several-tonne rocket stage acted as a kinetic weapon. The resulting crater was not merely a mark of arrival; it was a testament to the sheer energy involved in orbital logistics. While proponents argue that the moon is already peppered with craters and one more makes little difference, this misses the point of planetary protection. Science relies on pristine data. By scattering fresh, terrestrial-derived materials across the lunar surface, we contaminate the very geological sites we seek to study.
Regulatory bodies have been slow to react to this shift toward private-sector-led lunar activity. The Outer Space Treaty of 1967, which forms the basis of international space law, requires nations to authorize and supervise the activities of non-governmental entities. Yet, the treaty is notoriously vague on the specifics of hardware disposal after a mission concludes. It assumes that "supervision" means government agencies are building the rockets. When a corporation launches a payload, the incentive structure prioritizes mission success and cost reduction, not necessarily the long-term stewardship of the vacuum between worlds.
We are seeing a repeat of the early industrial revolution, but in a vacuum. Companies are prioritizing rapid iteration and low costs, which is undeniably accelerating the cadence of launches. However, this pace comes at the cost of sustainability. If a company does not have to pay for the removal of its spent hardware, that hardware remains in the system. The SpaceX impact was a wake-up call that the cost of space debris is not paid by the operator, but by the rest of humanity.
The True Cost of Orbital Ambition
The financial and operational reality of space travel is changing. In the past, government missions were bloated, expensive, and risk-averse. Today, private entities have turned rocketry into a commodity. This shift is welcome, but it creates a dangerous blind spot regarding orbital hygiene.
Consider a hypothetical scenario where private fleets scale to hundreds of lunar missions per decade. If even one percent of these missions end in uncontrolled disposal, the cislunar space will quickly become a minefield. We are currently operating without a global standard for "end-of-life" procedures beyond Earth orbit. There is no international clearinghouse that mandates trajectory adjustments to prevent derelict stages from hitting the moon or other satellites.
The lack of transparency is equally concerning. When the Falcon 9 stage was identified as the culprit, it was not the operator who initially raised the alarm. It was an independent group of observers and researchers who did the math. Had they not been watching, the crater might have remained a mystery, attributed to a random meteoroid. This reliance on amateur astronomers and academic observers to police the activities of multi-billion-dollar corporations is a systemic failure.
We are currently operating in a legal vacuum that is arguably more dangerous than the physical one. While NASA has internal guidelines for planetary protection, those rules often do not legally bind private commercial partners when they operate outside of a NASA contract. If a company launches a satellite on its own license, it faces far less scrutiny regarding where its upper stages end up.
Shifting The Burden Of Responsibility
For the industry to survive its own growth, we need a fundamental change in how we define mission success. A successful mission cannot just be the deployment of a payload; it must include the responsible disposal of every piece of hardware launched. This needs to be written into the launch licensing process. If you cannot prove that you have the fuel or the propulsion system to de-orbit or safely graveyard your stages, you should not get the launch permit.
This approach would inevitably increase costs, which is exactly why the industry resists it. However, the alternative is a moon surface littered with debris and a high-traffic zone that becomes too dangerous for human or robotic exploration. The history of maritime and aviation regulation shows that industries do not police themselves effectively until they are forced to do so by the threat of catastrophic loss.
The 18-metre scar on the moon serves as a physical reminder that space is not a playground. It is a harsh, unforgiving environment that requires foresight. We are entering an era where we can reach almost anywhere in the solar system, but we seem incapable of taking out our own trash. Until we establish binding, international standards that hold private entities accountable for the entire lifecycle of their hardware, we are simply waiting for the next impact.
Future missions will undoubtedly be more complex, involving landers, human habitats, and permanent lunar bases. Each of these missions will generate more debris. If we do not address this now, the lunar surface will become a graveyard of failed private ambitions. The technology exists to de-orbit rockets and redirect debris. What is missing is the political will to mandate these practices at the cost of profit margins.
The lunar environment is currently a blank slate, a place where humanity can observe the history of the solar system in silence. Every time we let a rocket stage crash into that history, we are effectively writing our own graffiti over the evidence of our past. We have the capability to be better stewards of the void. We just have to decide whether we value the sanctity of the lunar landscape more than the convenience of cheap, short-sighted logistics. The impact in the Hertzsprung crater was a quiet one, but the message it sent to the industry should be loud enough to trigger a complete overhaul of how we treat the final frontier.
Ignoring this trajectory is no longer an option. The data is clear, the physics are absolute, and the regulatory framework is crumbling under the weight of commercial ambition. We are standing at a threshold where our reach has finally exceeded our sense of responsibility. Unless the rules of the game change immediately, the next crater we see will not be a surprise discovery. It will be the inevitable consequence of a system that decided it was easier to leave a mess than to do the work of cleaning it up.
