That’s the future we’re working toward. Our research centers on dynamic nuclear polarization, investigating whether controlled changes in a material’s spin state could provide a new approach to propulsion. Through hands-on laboratory experiments, we’re testing the ideas that could make propellantless spaceflight possible.
We’re not looking to build a better rocket. We’re exploring what comes next.
At Falcon Space, we’re not just thinking about the future; we’re building it. Our dedicated Research & Development team is on a relentless quest to redefine the boundaries of propulsion technology. In a universe where fuel resources are finite, we believe in the infinite potential of propellantless propulsion.
Traditional propulsion methods rely heavily on fuel, which is not only a depleting resource but also adds significant weight to spacecraft, limiting their range and capabilities. Propellantless propulsion, on the other hand, offers a sustainable and efficient alternative, paving the way for longer, more ambitious space missions.


All atoms have spin, but it’s randomly oriented in normal materials – which cancels out any potential forces. What if you could align those spins, so that the axis of rotation for every atom in a material was facing the same direction? You can: it’s done by a process called “Dynamic Nuclear Polarization”.
Nearly four decades ago, a researcher named Dr. Frederic Alzofon conducted a series of experiments that led to a substantial decrease in weight for test-samples. Today, we’re working with his estate and a group of the world’s top DNP scientists to recreate his experimental results for next-generation propulsion.
Our Team & Advisors
Contact Falcon Space
Send us a message & let's talk!
This site is protected by reCAPTCHA and the Google Privacy Policy and Terms of Service apply.















