Russian Scientists Develop a Plasma Engine Capable of Reaching Mars in 30 Days—Spacex’s Starship Could Become Obsolete
February 11, 2025
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Russian scientists have unveiled an ambitious new plasma engine that could drastically cut the travel time to Mars, reducing the journey from several months to just one or
Russian scientists have unveiled an ambitious new plasma engine that could drastically cut the travel time to Mars, reducing the journey from several months to just one or two. If successful, this breakthrough could redefine interplanetary exploration and bring humanity closer to deep-space travel. But is this cutting-edge technology ready for real-world missions, or is it just another sci-fi dream?
The Science Behind the Plasma Engine
Developed by Rosatom’s Troitsk Institute, this revolutionary magnetoplasma propulsion system functions differently from traditional chemical rockets. Instead of burning fuel to generate thrust, it uses electromagnetic fieldsto accelerate charged particles—primarily hydrogen ions—to extreme speeds of 100 km/s (360,000 km/h). By comparison, conventional rockets can only achieve 4.5 km/s due to the limitations of combustion.
Unlike chemical propulsion, which delivers an initial burst of speed but then coasts, plasma engines provide continuous thrust, allowing spacecraft to accelerate steadily over time. This sustained acceleration could allow a spacecraft to reach Mars in 30 to 60 days, significantly reducing astronauts’ exposure to cosmic radiation and psychological strain during the voyage.
Photo: IZVESTIA/Sergey Lantyukhov
A Prototype Already in Testing
This isn’t just a theoretical concept—scientists at Rosatom have already built a working prototype of the plasma engine, which is currently undergoing ground tests. The experimental setup includes a 4-meter-wide and 14-meter-long vacuum chamber designed to replicate space conditions. The engine operates in a pulse-periodic mode, with a power output of 300 kW, and has demonstrated a lifespan of 2,400 hours, long enough for a Mars-bound journey.
Once operational, the plasma engine will not replace traditional chemical rockets but will instead take over once a spacecraft reaches orbit. The system could also be used as a space tug, transporting cargo between planetary orbits much faster than current technology allows.
Photo: IZVESTIA/Sergey Lantyukhov
Why Hydrogen? The Ultimate Space Fuel
One of the key innovations behind this engine is its use of hydrogen as the primary propellant. Hydrogen’s advantages include:
Lightweight and abundant: It is the most common element in the universe and can potentially be harvested in space.
Efficient acceleration: Lighter atoms allow for faster ion acceleration, maximizing propulsion efficiency.
Lower heat generation: Unlike other plasma propulsion methods, this system doesn’t require extreme temperatures, reducing wear and tear on engine components.
How Does It Compare to Existing Technology?
While plasma propulsion isn’t a new concept, the speeds claimed by Rosatom—100 km/s—are far beyond the capabilities of existing ion thrusters, which typically max out at 30-50 km/s. If these claims hold up, Russia could be decades ahead of competitors in advanced propulsion systems.
Currently, NASA’s Psyche mission and several OneWeb satellites already use Russian-made plasma thrusters, demonstrating the country’s expertise in this field. However, this new system aims to take plasma propulsion to an entirely new level.
When could this engine be space-ready?
The roadmap for this technology is ambitious. According to the project’s scientific advisor, a flight-ready model of the engine is expected to be completed by 2030. While this timeline might seem optimistic, Russia’s track record in space propulsion gives the project credibility.
If successful, this innovation could open the door for faster missions to Mars, deep-space exploration, and even the possibility of reaching the outer solar system within a human lifetime.
A Game-Changer or Just Hype?
While the idea of reaching Mars in one to two months sounds incredible, several challenges remain:
Independent verification: No peer-reviewed studies have confirmed the engine’s performance yet.
Integration with spacecraft: How will it be incorporated into future Mars missions?
Energy source: A nuclear power supply will likely be needed, adding complexity to the design.
Despite these uncertainties, if this technology delivers on its promises, it could mark a new era in space exploration. Whether it becomes a reality or remains a futuristic concept, the idea of a 30-day journey to Mars is closer than ever before.