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In late February 2025, a small spacecraft named Odin lifted off from Earth, marking a significant moment for the private company AstroForge and its ambitious vision of mining asteroids. Launched as a secondary payload on a SpaceX Falcon 9 rocket, Odin represents a practical effort to explore the potential of harvesting valuable metals from space rocks. This article takes a close look at the Odin spacecraft, its purpose, the challenges it has faced since launch, and what its journey means for the future of space exploration.
A Mission Beyond the Moon
Unlike many spacecraft that capture headlines by heading to the Moon or Mars, Odin’s destination lies farther out in the vastness of deep space. Its target is a near-Earth asteroid known as 2022 OB5, a rocky body that could hold metals like platinum, nickel, and cobalt—resources AstroForge hopes to one day extract and bring back to Earth. Launched on February 26, 2025, alongside Intuitive Machines’ IM-2 lunar lander, Odin hitched a ride into orbit before separating to begin its own solitary trek.
The spacecraft isn’t designed to land on the asteroid or collect samples. Instead, its job is simpler yet essential: fly by 2022 OB5 roughly 300 days after launch, snap detailed pictures, and send back data about the asteroid’s size, shape, and composition. This information could lay the groundwork for future missions that might actually mine these distant objects. For a company like AstroForge, which sees asteroids as untapped resource banks, Odin serves as a first test of whether their idea can work in the real world.
What Odin Looks Like and How It Works

Source: Astroforge
Odin is a compact spacecraft, built to be both lightweight and sturdy enough to survive the harsh conditions of space. Picture a boxy satellite, not much bigger than a microwave, covered in solar panels that soak up sunlight to keep its systems running. Inside, it carries a camera to photograph its asteroid target, along with antennas to beam those images back to Earth. There’s no fancy propulsion system here—Odin relies on the initial push from the Falcon 9 rocket and the natural pull of gravity to carry it toward 2022 OB5.

The spacecraft’s design reflects its practical purpose. It doesn’t need to maneuver much or perform complex tasks. Its creators at AstroForge kept it straightforward, focusing on durability and the ability to stay powered up during its long journey. Once it reaches the asteroid, Odin will have a brief window to capture and transmit its findings before continuing on into the void.
The Launch and Early Days
The launch itself went smoothly. On February 26, 2025, the Falcon 9 roared into the sky from its pad in Florida, carrying Odin and the IM-2 lunar lander into orbit. About 47 minutes later, Odin separated from the rocket’s upper stage, striking out on its own. For a while, everything seemed on track. The spacecraft’s solar panels unfolded, and it began generating power, a good sign that it had survived the ride.
But space has a way of throwing curveballs. Within hours, AstroForge’s team noticed problems. They could hear Odin’s signal—a steady beep from its radio—but getting detailed information proved tricky. The spacecraft managed to send some data 20 hours after launch, well beyond its internal battery’s 2.5-hour limit, confirming the solar panels were doing their job. Still, something wasn’t right.
A Tumble in the Dark
As the days passed, it became clear that Odin was spinning slowly, a motion known as tumbling. This wasn’t part of the plan. A tumbling spacecraft can’t point its antennas or camera properly, making communication and photography much harder. Data from radio operators and a powerful listening network in space confirmed the spin was gentle—less than one degree per second—but even that small wobble posed a problem.
Why Odin started tumbling remains a mystery. It could’ve been a slight bump during deployment or an issue with its internal systems. Whatever the cause, the team on the ground struggled to regain control. Early attempts to talk to the spacecraft didn’t go as hoped, with missed chances to connect through ground stations adding to the frustration. By March 2, 2025, Odin was still sending a basic signal, showing it was alive and powered, but the detailed data needed to steer it back on course remained elusive.
Where Things Stand Now
As of March 2, 2025, Odin’s fate hangs in the balance. The AstroForge team hasn’t given up. They’re working around the clock, analyzing every scrap of information they can get and sending commands when the spacecraft’s antennas briefly align with Earth. The fact that Odin is still generating power offers a glimmer of hope—if they can stop the tumble, it might still reach 2022 OB5 and complete its mission.
Even so, the clock is ticking. The longer the spacecraft spins without a fix, the tougher it becomes to ensure it’ll be ready for its asteroid flyby later in the year. For now, Odin drifts on, a tiny speck in the vastness of space, its success uncertain but its effort undeniable.
Why Odin Matters
Odin’s story isn’t just about one spacecraft. It’s a window into a bigger idea: using space not just for science or exploration, but as a practical resource. AstroForge wants to turn asteroids into supply depots, pulling out metals that are rare or hard to mine on Earth. If Odin can pull off its flyby, it’ll provide a first look at whether that dream makes sense. If it doesn’t, the lessons learned will shape the company’s next try with a spacecraft called Vestri, set to attempt an asteroid landing in late 2025.
The mission also shows how private companies are stepping up in space. Where governments once led the charge, firms like AstroForge are now taking risks, building their own spacecraft, and chasing their own goals. Odin may be small, but it carries the weight of a new way of thinking about what’s possible beyond our planet.
Summary
The Odin spacecraft, launched by AstroForge on February 26, 2025, set out to photograph a near-Earth asteroid called 2022 OB5 as a stepping stone toward mining space rocks. A compact, solar-powered probe, it hit trouble soon after launch, tumbling slowly and struggling to communicate fully with Earth. As of March 2, 2025, the team is still fighting to save the mission, with Odin showing signs of life but facing an uncertain road ahead. Whether it succeeds or not, Odin’s journey highlights a practical push to tap into space’s resources and reflects the growing role of private companies in exploration beyond Earth.
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How to Kill an Asteroid: The Real Science of Planetary Defense by Robin George Andrews
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Fire in the Sky: Cosmic Collisions, Killer Asteroids, and the Race to Defend Earth by Gordon L. Dillow
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Catching Stardust: Comets, Asteroids and the Birth of the Solar System by Natalie Starkey
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Asteroids by Clifford J. Cunningham
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Cosmic Impact: Understanding the Threat to Earth from Asteroids and Comets by Andrew May
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Mining the Sky: Untold Riches from the Asteroids, Comets, and Planets by John S. Lewis
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Rain of Iron and Ice: The Very Real Threat of Comet and Asteroid Bombardment by John S. Lewis
This nonfiction book explains the geological and historical evidence for large impacts and bombardment episodes, including what crater records indicate about long-term risk. It also describes how impact science informs public risk perception and the practical case for asteroid detection and mitigation planning.
The Asteroid Threat: Defending Our Planet from Deadly Near-Earth Objects by William E. Burrows
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Bennu 3-D: Anatomy of an Asteroid by Dante S. Lauretta
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