USSF Col. Jason West (L) discusses the potential power and utility of AI for space domain awareness with PSAI Chief Technology Officer Aaron Sloman (R) during the company’s demonstration of its agentic technology.

This week, Planetary Systems AI demonstrated powerful new AI tools for identifying adversary spacecraft, analyzing their behavior, and helping U.S. Space Force (USSF) Guardians decide how to respond.

Our engineering team showed off this system of AI-orchestrated agents to USSF commanders and software integrators at Space Systems Command’s SDA TAP Lab in Colorado Springs at Demo Day for Cohort 7 of the Apollo Accelerator.

These tools are clustered around a new agentic artificial intelligence system that melds multiple data sources into a clear, realtime picture of spacecraft activity – not by merely categorizing maneuvers, but also by revealing them in geopolitical and historical context.

Simply put, PSAI’s system can identify sensitive points of interest or geopolitical threat that adversary spacecraft leverage for surveillance to provide insights and intelligence.

By building a record of these observation targets, our system can then spot similar maneuvers in future and identify when and where spacecraft might be looking earthward ahead of potential armed conflict or other coordinated orbital maneuvers.

The system is designed to dispatch a fleet of software agents that fetch, process, and analyze various data sources whenever the lab’s prototype battle management system – known as Welder’s Arc – detects an unexpected maneuver by an adversary’s spacecraft.

The agents:

  • identify the spacecraft’s capabilities from publicly-available information
  • calculate from its earth-facing camera specifications and orbit path what it might be able to see
  • fetch a list of likely observation targets in the view path, including:
    • lat/long data on sensitive installations such as dams, military bases, or power plants; or
    • news articles about current or recent geopolitical events 
  • suggest theories about the adversary’s intent – and recommend strategies for allied response

The system is meant to function as a sort of co-pilot for U.S. Space Force operators, who can modify the agents’ behavior to investigate other facets of each maneuver and then validate or correct the system’s recommendations which trains the prediction model to constantly improve its performance. And it can transform the sequential behavior of Welder’s Arc’s dozens of analytical applications into a living, responsive system for identifying, predicting, and responding to hidden, unknown, and hostile activity by adversary spacecraft.

Architecture like this can be configured to address many more space-domain awareness problems that require swift and complex analysis of multiple varied data sources to feed rapid decision recommendations to USSF Guardians – shortening analytical processes that often take hours and sometimes days, and reducing the risk of operational surprise.

In another demonstration, we showed how our AI agents can monitor news sources for indications of pre-launch activities and launch of satellites by U.S. adversaries.

This news-analysis agent is connected to our existing capability-analysis tool, which aggregates publicly-available information from many sources into specification profiles of just-launched satellites. This lets us link launch events to specific satellites before they enter orbit, and can help reduce the workload on other systems that labor to associate uncorrelated satellite tracks after launch to specific vehicles.

The team also demonstrated an expansion of our computer vision model for identifying satellite capabilities from orbital images and clean-room photos.

We are working to overcome a significant challenge to using AI to identify adversary spacecraft: Very few images of spacecraft exist that can be used to train computer-vision systems. Instead, we have begun training our system on synthetic visual data provided by a major defense industry partner within the lab. This allows us to train the model on thousands of synthetic satellite images for better accuracy, where only a few dozen publicly-available photographs of orbiting satellites exist.

Our work is timely: In an effort to keep the U.S. competitive in the global space industry, the White House this week issued an executive order meant to reform contract regulations and streamline the review process for space companies vying for federal business. At its core:

It is the policy of the United States to enhance American greatness in space by enabling a competitive launch marketplace and substantially increasing commercial space launch cadence and novel space activities by 2030.  To accomplish this, the Federal Government will streamline commercial license and permit approvals for United States-based operators.

During remarks at the start of Demo Day, USSF Colonel Jason West confirmed this new direction, saying that the Space Force is working to overhaul the existing defense-contracting environment – which usually sees software developed at a slow and deliberate pace by a limited number of major contractors – with a more agile process that will favor fast-moving innovation from smaller companies.

With our success at the SDA TAP Lab and our growing number of small and large space- and defense-industry partners, PSAI sits in a great position to ride this next wave of innovation.   We welcome the change, and look forward to what comes next.

Watch this space.

At the recent NYSE Wired East Coast AI Leaders’ Reception & Media Event at South Street Seaport and at the NYSE Space Summit, Planetary Systems AI had the honor to share the massive opportunities with space data in the space sector our innovative AI solutions and vision for the future, led by CEO Cindy Chin, FRSA.

The NYSE Space Summit brought together leading voices in the space industry to explore opportunities for growth and innovation. Executives from key space companies and institutional investors discussed how public markets are supporting the space sector, highlighting the intersection of innovation, regulation, and investment. The event emphasized the increasing role of space in shaping industries beyond aerospace, including finance, technology, and sustainability. Discussions ranged from advancements in space technology including artificial intelligence to the growing importance of satellite connectivity and space exploration in economic development.

Chin articulated the challenges with spacedata opportunities in AI with the company’s strategic goals and collaborative initiatives during an interview above the New York Stock Exchange floor with John Furrier of SiliconANGLE & theCUBE to make clear that PSAI is poised to make a significant impact in the space tech landscape.

NYSE Wired is an open-source community built to support entrepreneurs and their companies building cutting-edge AI technologies.

A launched rocket soars above billowing white clouds of exhaust, white-hot flame shooting from its stern, against a partly cloudy blue sky.
A Northrop Grumman Antares rocket lifts off on a cargo supply mission to the International Space Station. Photo by Cindy Chin, Planetary Systems AI.
A satellite studded with sensors, instruments, and antennae floats in the black void of orbit above the curved hazy blue surface of the earth, with large, wing-like solar panels extending from either side of its cylindrical body.
Blue Origin’s Blue Ring project, announced in late 2023, is developing vehicles like these to manage orbital logistics and the gathering, processing, and transmission of data.
Two women facing away from the camera in a large mission-control room. Before them are a man in glasses and six video screens showing camera views of a rocket on a launch pad, weather maps, and other mission data.
A SpaceX Falcon 9 ground crew preparing for launch earlier this year at Space Launch Complex 40, at Kennedy Space Center. Photo by Cindy Chin, Planetary Systems AI.

The U.S. Space Force is partnering with private industry this spring to develop the “Digital Spaceport of the Future.” 

The intention implied in this ambitious program’s title speaks to the enormity of the problem that it’s meant to solve: 

The operating system for U.S. spaceports – a patchwork infrastructure of labor-intensive operations and logistics cobbled together over 60+ years from stovepiped government-agency software running on aging hardware – desperately needs modernization. 

Why? The launch business is booming and, with it, the core data practices of the space economy. 

That’s where AI comes in:

The U.S. Space Force expects launch cadence at the nation’s spaceports to speed up by 30% year-over-year; the Eastern Range alone will host more than 116 launches in 2024

SpaceX alone launched 1,871 Starlink satellites in 2023, and 564 so far in 2024. Amazon plans more than 77 launches with partner launch providers for its own Project Kuiper, and Blue Origin is developing Blue Ring, a multi-use spacecraft that will move data, cargo, and other spacecraft in and between earth and lunar orbits.

So, as the space industry surges into a state of massive, vibrant complexity and growth, stakeholders across all domains find themselves working on a universal problem: making data work better and faster.

Acquiring data is easy: Whatever the instrumentation – satellite sensors, telemetry systems, computational analysis – any space company’s access to their own data is no more complicated than the tools and staffing they use. The hard part is normalizing and operationalizing that data with context and insights – the kind that support budgeting, strategy, development, and real-time operations. 

Data practitioners still struggle with normalizing and interpreting data correctly to support their planning and decision-making in the increasingly complex and data-rich intraorbital environment.

Artificial intelligence, carefully built and responsibly deployed, will streamline those efforts, and support that heavy lift. 

By empowering efficient R&D and ensuring safer and faster operations across complex technical domains, AI will serve as the radically-expanding space economy’s amplifier – and pressure valve.

In design work, AI can model potential equipment failures under myriad conditions, exposing risks before costly and dangerous live operations reveal them the hard way.

At launch, AI can identify anomalies and shut down unforeseen mission risks far faster than human monitors ever could.

And during spaceport data operations – whether via post-processing and analysis, active synthesis, or networked orbital computing – AI can reveal critical anomalies and valuable opportunities across completely heterogeneous datasets that might otherwise have been lost in hours of costly human labor.

Built fully interoperable, responsibly scalable, and thoroughly secure, AI will fuel the space economy’s already massive growth – and the evolution of Earth as a spacefaring world – for centuries to come. 

We are excited to be architecting that future, and that’s why we at Planetary Systems AI are partnering with agencies, private companies, and passionate, brilliant minds to accelerate their growth. 

We are obsessed about space data. Watch this space. Or reach out. We’re always glad to connect and learn from you.

Mack Reed is Head of Product at Planetary Systems AI. He can be reached via our Contact page.