‘Extraterrestrial’ Intelligence

By: Rika Nakazawa, Author of Beyond the Black Swan: How the Pandemic and Digital Innovation Intensified the Sustainability Imperative – Everywhere and Dear Chairwoman
01/17/2025

‘Extraterrestrial’ Intelligence

As our civilization’s ambitions reach beyond the stars, the intersection of advanced technologies and the modern acceleration of the space economy is a pivotal force in reshaping industries and expanding possibilities. A major movement in this force is, yes, Artificial Intelligence – traditional AI and Generative AI (genAI). While already disrupting domains like content creation and healthcare, the new breed of genAI tools is yielding significant advances in the space and satellite domain.

In our rapidly evolving landscape that spans satellite communications, Earth observation, space tourism, and interplanetary logistics, the ability to analyze massive datasets, generate insights, and optimize resources is paramount. GenAI is a catalyst for the innovation and efficiency that will help us navigate the anticipated exponential growth to a $1.8 trillion space economy in the next 10 years. AI is reshaping the space economy through multiple facets by unlocking new opportunities and simplifying complexities at speed and scale.

Engineering and System/Material Design Optimization

GenAI facilitates the creation of innovative satellite and spacecraft designs by analyzing extensive datasets to propose novel configurations - accelerating the design process and enhancing performance and efficiency. According to a Capgemini survey, 41% of aerospace and defense organizations are experimenting with generative AI in 3D modeling to accelerate design processes, optimize parts for aerodynamics, and lower costs. AI has demonstrated its astonishing ability to generate unique structural designs that engineers can then refine to yield optimized spacecraft components.

Meanwhile, AI is a powerful tool to produce space-resilient materials, responding to everything from the vacuum of deep space to the high radiation levels near stars. By analyzing countless combinations of elements and structures, AI can uncover materials with exceptional properties suited for spacecraft, heat shields, or life support systems. The rapid exploration of possibilities within complex simulated environments both shortens development timelines but also enhances the likelihood of successful missions.


Mission Planning and Simulation

Since the 1950s, global Space missions have vaulted more than 25,000 objects into Earth orbit, and by some estimates, this number could triple in the next few years. By leveraging GenAI, space agencies can simulate complex mission scenarios, including orbital mechanics and potential system failures. This predictive capability enables more effective mission planning and risk mitigation, ensuring higher success rates for space missions.

Space Traffic Management

With the increasing number of devices in orbit, managing space traffic is crucial. In 2023, SpaceX launched 1800 new satellites in Orbit and in the first half of 2024 they made 50,000 collision-avoidance maneuvers with the help of AI. AI assists in predicting satellite trajectories and potential collisions, facilitating proactive measures to prevent accidents and maintain sustainable space operations.


Autonomous Satellite Operations

With software-defined satellites composing a larger share of spacecraft manufacturing, AI will contribute to the development of autonomous satellite systems capable of making real-time decisions, such as adjusting orbits or managing onboard systems without human intervention. This autonomy enhances operational efficiency and reduces reliance on ground control. The U.S. Space Force is now utilizing AI to advance decision cycles and optimize strategic planning by using space-sourced datasets to assess potential risks and design response strategies.

Satellite Data Analysis

The vast amount of data generated by Earth observation satellites can be efficiently processed using GenAI. AI models can identify patterns and anomalies in satellite imagery, providing valuable insights for applications such as environmental monitoring, disaster response, and compliance adherence. The Φsat-2 satellite from ESA that launched in August 2024 features a multispectral camera paired with an advanced AI computer capable of analyzing and processing imagery directly onboard, offering a more intelligent and efficient approach to monitoring Earth’s environment. With six AI applications running onboard, the satellite is designed to turn images into maps, detect clouds in the images, classify them and provide insight into cloud distribution, detect and classify vessels, compress images on board and reconstruct them in the ground reducing the download time, spot anomalies in marine ecosystems and detect wildfires.

Cosmic Energy Harvesting

What was once a concept confined to the realm of science fiction most notably from Isaac Asimov —space-based solar power stations—is now edging closer to reality. AI plays a critical role in optimizing the design, construction, and operation of these massive structures. It also offers innovative solutions for efficiently transmitting energy back to Earth, ensuring minimal energy loss during the transfer process.


The space economy is evolving rapidly, and with a multitude of AI innovations burgeoning, we stand on the brink of a revolutionary era of discovery and innovation, with even the possibility that we (humans) may not even need to ourselves delve deeper into the (arguably unreasonably treacherous) cosmic frontiers ourselves, physically. Nevertheless, overreliance introduces key risks - including automation errors from reduced human oversight, vulnerability to cyberattacks, and the propagation of biases from flawed datasets. Ethical and legal concerns arise around accountability for AI-driven decisions, while dependence on AI could erode human expertise and stifle innovation if models get stuck in data echo chambers. Scalability challenges, environmental impacts from increased space debris, and economic disparities between nations further complicate AI adoption. And of course, AI’s reliance on high-quality data limits its effectiveness in data-scarce environments. To mitigate these risks, ‘keeping humans in the loop’ in the advance of increasingly sophisticated tools, democratizing access to these technologies and establishing ethical frameworks – ideally across international lines - are essential to ensure safe and equitable space economic development. The next decade will yield profound breakthroughs in the industry, where the ability to seamlessly integrate AI while remaining vigilant and responding to these risks - will define the winning pioneers of the cosmic marketplace.