Mapping Orbital Debris Risk: How a Student Esri Story Map Reveals the Hidden Traffic Jam Above Earth

 

Mapping Orbital Debris Risk

How a Student Esri Story Map Reveals the Hidden Traffic Jam Above Earth

By Gervais W. Tabopda | Georgia Institute of Technology | For tabopda.blogspot.com

Figure 1. Near-Earth orbit is increasingly an operating environment, not an empty frontier.

We cannot manage what we cannot see. Mapping orbital debris is the first step toward explaining, regulating, insuring, and sustaining the orbital commons.

 

My Aerospace student Lauren Forcey, under my supervision, performed an Esri StoryMap GIS project on one of the most urgent but least visible challenges of the modern space age: orbital debris. Her project, “Invisible Orbits, Visible Consequences,” explores how thousands of satellites, retired spacecraft, rocket bodies, and fragments of human-made material are transforming Earth’s orbital environment into a crowded and increasingly fragile infrastructure zone.

What began as a GIS class project quickly revealed a much larger research and communication opportunity: how can we make the invisible risks of orbital debris visible to scientists, policymakers, investors, students, and the public?

This blog article presents that idea through the lens of geospatial science, aerospace sustainability, public communication, and innovation.

Space Is Not Empty Anymore

From the ground, space appears silent and empty. We look up and see a dark sky, stars, and perhaps the occasional satellite crossing overhead. But near-Earth orbit is no longer an empty frontier. It has become a working environment filled with satellites, spacecraft, rocket bodies, and debris fragments moving around the planet at extremely high speeds.

Satellites now support almost every part of modern life. They help us forecast weather, navigate with GPS, monitor wildfires, observe climate change, support agriculture, connect remote communities, guide aircraft and ships, secure national defense, and synchronize financial transactions. This orbital infrastructure is essential, but it is also vulnerable.

The European Space Agency reported in its 2025 Space Environment Report that about 40,000 objects are currently tracked by space surveillance networks, including about 11,000 active payloads. ESA also estimates that the real number of debris objects larger than 1 centimeter is more than 1.2 million, large enough to cause serious damage in orbit.

NASA’s Orbital Debris Program Office gives a similar warning: more than 25,000 objects larger than 10 centimeters are known to exist, around 500,000 particles between 1 and 10 centimeters are estimated, and the number of particles larger than 1 millimeter exceeds 100 million.

Why Small Pieces Can Cause Big Damage

On Earth, a small metal fragment might seem harmless. In orbit, the same fragment can become dangerous because objects travel at very high relative velocities. Even a tiny piece of debris can damage solar panels, sensors, spacecraft windows, thermal systems, or other critical satellite components.

A larger object can be catastrophic. A collision between two satellites, or between a satellite and an abandoned rocket body, can create thousands of new fragments. Those fragments can then threaten other spacecraft, creating a chain reaction of debris generation.

This is the concern often associated with the Kessler Syndrome, a scenario in which collisions create more debris, which then creates more collisions. The danger is not that all of space becomes unusable overnight. The more realistic concern is that some valuable orbital regions could become increasingly risky, expensive, and difficult to operate in.

This is why orbital debris is not simply “space junk.” It is an environmental, technological, economic, and governance problem.

The GIS Question: How Do We Map an Invisible Risk?

Lauren Forcey’s StoryMap matters because it approaches orbital debris as a geographic problem.

GIS is usually associated with maps of cities, rivers, roads, forests, land use, or climate risk. But geography is not limited to Earth’s surface. Near-Earth orbit also has spatial patterns. Objects are distributed by altitude, inclination, orbit type, density, speed, and proximity to operational satellites.

In other words, orbital debris has a geography.

The StoryMap helps make that geography visible. It translates a highly technical aerospace issue into an interactive spatial narrative that students, researchers, policymakers, and the broader public can understand. This is the power of GIS communication: it does not merely store data; it helps people see relationships, patterns, and consequences.

If orbital debris remains invisible to the public and abstract to decision-makers, it will remain difficult to communicate, regulate, insure, and mitigate. But when we map it, we begin to understand it as a shared environment requiring shared responsibility.

From StoryMap to Research Innovation

Lauren’s project inspired a broader framework that I call GEO-ORBIS: Geospatial Orbital Risk and Business Intelligence System.

GEO-ORBIS is a proposed decision-support framework that connects orbital-debris science with GIS, risk analysis, economics, policy, and public communication.

1. The Geospatial Layer

This layer answers the question: where is the risk? It maps orbital objects, debris density, active satellites, abandoned spacecraft, rocket bodies, and high-risk orbital zones.

2. The Risk Layer

This layer asks: what can be damaged or disrupted? It interprets collision exposure, conjunction risks, debris hotspots, and orbital congestion.

3. The Economic Layer

This layer asks: what is financially at stake? Orbital debris increases mission risk, shortens satellite lifetimes, raises insurance concerns, forces avoidance maneuvers, and complicates future launches.

4. The Policy Layer

This layer asks: what rules guide responsible behavior? As orbital congestion increases, regulators are beginning to respond through deorbit, mitigation, licensing, and sustainability requirements.

5. The Communication Layer

This layer asks: how do we make people understand and act? StoryMaps, dashboards, reports, data visualizations, and public-facing maps become essential tools for translating science into decisions.

Why This Matters for Investors and Incubators

Orbital debris is a risk, but it is also a market signal. As the number of satellites grows, demand will increase for orbital-risk dashboards, collision-awareness tools, geospatial risk scoring, insurance analytics, regulatory compliance support, satellite-fleet exposure reports, public education platforms, university training modules, and space-sustainability intelligence.

A platform such as GEO-ORBIS could serve satellite operators, insurers, investors, regulators, research laboratories, universities, and incubators. Its value is not in replacing existing space-surveillance systems. Its value is in translating complex orbital information into decision-ready intelligence.

Many decision-makers do not need raw orbital mechanics data. They need to know where risk is concentrated, what assets are exposed, what regulations apply, and what decisions should be made next. This is where GIS and business intelligence can work together.

A New Kind of Environmental Geography

We often think of environmental problems as issues affecting forests, rivers, oceans, cities, or the atmosphere. Orbital debris asks us to expand that thinking. Earth orbit is also an environment.

It is not natural in the traditional sense, but it is shared. It is limited. It is increasingly crowded. And it supports essential services for people on Earth.

This makes orbital debris similar to other global commons problems. Like ocean plastic, air pollution, or climate change, orbital debris is created by many actors, accumulates over time, crosses national boundaries, and requires cooperation to manage.

The difference is that most people cannot see it. That is why Lauren’s StoryMap is powerful. It gives visual form to a hidden risk and helps students and the public understand that the space around Earth is not an unlimited dumping ground.

The Role of Students in Scientific Innovation

One of the most inspiring aspects of this project is that it began with a student. Students often bring fresh eyes to complex problems. In this case, Lauren Forcey used GIS and Esri StoryMaps not just to present information, but to ask a deeper question: how can spatial storytelling help society understand the future of orbital sustainability?

That question has scientific value. It has educational value. It has business value. And it has public value.

As educators, we often evaluate student projects as class assignments. But sometimes a class project opens a door to something larger. This project does exactly that. It shows how aerospace thinking, GIS methods, and public communication can come together to address a real global challenge.

Why a StoryMap Is the Right Medium

A StoryMap is not simply a map. It is a narrative environment. It combines text, maps, images, data, and interaction. For a topic like orbital debris, this is especially useful because the problem is difficult to imagine.

Most people have never seen orbital debris. They may not realize how many objects are above Earth, how fast they travel, or how much modern society depends on satellites. A StoryMap helps solve that problem by guiding the reader through evidence and interpretation.

It can show where debris is concentrated, why small objects matter, how satellites are exposed, why orbital congestion is increasing, how policy is changing, and why space sustainability affects life on Earth.

From Classroom Project to Public Science

The next step is to develop this work into a broader public-science and research platform. A future version of the project could include updated orbital-debris datasets, interactive debris-density maps, a risk index by orbital zone, a policy dashboard, a business-intelligence layer for investors and insurers, educational modules, and a public StoryMap series explaining space sustainability in accessible language.

The Larger Message

The larger message is clear: space sustainability is Earth sustainability.

When satellites are threatened, Earth-based systems are threatened too. Weather forecasting, navigation, disaster response, climate monitoring, agriculture, communications, and security all depend on orbital infrastructure.

Orbital debris may be above us, but its consequences are around us. Lauren Forcey’s StoryMap helps reveal this connection. It shows that GIS can play an important role in aerospace communication. It also shows that students can produce work that matters beyond the classroom.

Conclusion: Making the Invisible Visible

My aerospace student Lauren Forcey’s Esri StoryMap project demonstrates the power of geospatial storytelling to illuminate one of the most important hidden challenges of the modern space age.

Orbital debris is invisible to most people, but it is not harmless. It is a growing risk to satellites, space missions, the space economy, and the services we rely on every day.

By mapping orbital debris risk, we make the problem visible. By making it visible, we make it understandable. And by making it understandable, we make better decisions possible.

That is the promise of this project. It is not only about space debris. It is about how we use GIS to communicate science, how we prepare students to solve emerging problems, and how we protect the shared orbital environment that now supports life on Earth.

Suggested Blog Tags

GIS, Esri StoryMaps, Orbital Debris, Space Sustainability, Aerospace, GeoAI, Space Economy, Environmental Risk, Georgia Tech, Science Communication

References

·       European Space Agency. ESA Space Environment Report 2025. https://www.esa.int/Space_Safety/Space_Debris/ESA_Space_Environment_Report_2025

·       NASA Orbital Debris Program Office. Frequently Asked Questions. https://orbitaldebris.jsc.nasa.gov/faq/

·       Federal Communications Commission. FCC Adopts New 5-Year Rule for Deorbiting Satellites. https://www.fcc.gov/document/fcc-adopts-new-5-year-rule-deorbiting-satellites

·       Space Foundation. The Space Report 2025 Q2: Global Space Economy Reaches $613B in 2024. https://www.spacefoundation.org/2025/07/22/the-space-report-2025-q2/

·       Forcey, Lauren, and Gervais W. Tabopda. Invisible Orbits, Visible Consequences: A Global Map of Orbital Debris. Esri ArcGIS StoryMaps. https://storymaps.arcgis.com/stories/b52ed33782424941ae633dc910045c8e