SpaceX's New Solution to Land on the Moon, Solving What NASA Impossible!

Will SpaceX actually be the one to land NASA's astronauts on the Moon later this decade? That's the big question, and lately it's gotten a lot more complicated. NASA's acting chief, Sean Duffy, recently hinted that the agency might be rethinking its reliance on SpaceX for the upcoming lunar mission, exploring other options instead. The concern? Starship's hardware is still unproven, and that uncertainty could threaten the Artemis 3 timeline. Ironically, the alternatives NASA's considering aren't exactly flight-ready either. They come with their own technical risks, delays, and plenty of unknowns. So if untested hardware is really the problem, why not look to systems that are already proven? Hardware that's reliable, cost-effective, and ready to fly? We're breaking it all down in today's TechMap episode. Alright, so here's the thing. The first crewed moon, landing in over 50 years, might not be SpaceX's big moment after all. Yeah, I know, that's a twist. Back in April 2021, NASA handed Elon Musk's company a massive $2.9 billion contract. The mission is to build the first crewed lunar lander for the Artemis program. And that lander isn't just any spacecraft, it's a tricked-out version of the upper stage from SpaceX's giant Starship rocket. The plan was for it to ferry astronauts down to the moon's surface on the upcoming Artemis 3 mission, but NASA's getting a little impatient. They're not thrilled with how slowly Starship's been coming together, so they've decided to shake things up. According to acting agency chief Sean Duffy, NASA is reopening the competition for the Artemis 3 lunar lander, this time inviting two other contenders, Blue Origin and a more traditional cost-plus proposal from what you might call Old Space. Now, here's where it gets interesting. Elon Musk, who's all about competition, isn't exactly buying the idea that Blue Origin can ramp up fast enough to beat SpaceX to a crewed moon landing. And honestly, that skepticism kind of fits his style. You see, Blue Origin has never actually delivered a useful payload to orbit. Not once. The moon? Definitely not yet. Up to now, the company has only one orbital-class rocket, New Glenn. And that rocket finally took flight this past January, carrying a prototype of their Blue Ring spacecraft into Earth orbit. That was its first and so far only launch. Compare that to SpaceX, which has been launching orbital rockets for over 15 years, and, well, it's kind of hard to believe Blue Origin has the upper hand here. But here's where things get a little surprising. NASA's Sean Duffy actually pointed to Blue Origin as a frontrunner. And no, not because of their complex Mark 2 lander, the one that, like Starship, needs orbital refueling. It's actually the simpler Blue Moon Mark 1 that's getting attention. Now, this smaller lander is still bigger than the old Apollo Lunar module, but it doesn't rely on refueling. It's already deep in production and testing, with launches planned for early 2026 and 2027. Some experts think it could even be modified to carry a crew, which might fast-track America's return to the lunar surface. That said, if Blue Origin does upgrade the Mark 1 for a crewed Artemis 3-type mission, odds are it will still need some kind of orbital refueling. Makes sense, right? To land humans and bring them back safely, you need more propellant. So the team would either have to start from a higher Earth orbit to save on fuel, or set up refueling between stages in space. And that's Blue Origin's working on something called the Cislunar Transporter. Basically a tug-and-tanker combo that can refuel their Blue Moon landers while orbiting the moon. Pretty wild. It's ambitious, cutting-edge stuff, just like what SpaceX is doing. But yeah, it's also really complex. The second option that NASA's Sean Duffy mentioned involves a more traditional, government-led lander project. Kind of an Apollo-style approach backed by companies like Lockheed Martin. Officials from those companies say they could build an Apollo lunar module-style lander in about 30 months. But here's the catch. That design was made for short lunar trips over 50 years ago, and it just doesn't line up with the complexity and long-term goals of the Artemis program today. Unlike the newer commercial contracts, this old-school, government-led setup would follow a cost-plus model. And that's expensive. We're talking about a lunar lander that could end up costing nearly 10 times what NASA awarded SpaceX back in 2021. On top of that, NASA can't exactly walk away from its existing contracts with SpaceX and Blue Origin. Especially in SpaceX's case, a lot of the funding has already gone out as milestone payments. So even if NASA tried to pivot, it would come with a massive price tag. In short, the cost of Artemis would skyrocket. And even then, it wouldn't guarantee a flawless mission. So some experts and members of the space community have been suggesting another path forward, one that could ease the complexity, shorten the schedule, and trim costs for Artemis. The idea is pretty simple. Use the hardware we already have. The stuff that's proven and ready to go. Think about it. There's a rocket out there that's long-range, relatively affordable, and seriously capable. It's past the development phase, it's flight-proven, and it's still flying missions today. That rocket is the Falcon Heavy. Until Blue Origin's system becomes operational, Falcon Heavy will be the only launcher in its class that's actually available. Maybe not the only super-heavy rocket overall, but definitely the most practical option right now. It offers roughly half the payload capacity of the Saturn 5 and can send about 16.8 tons all the way to Mars. Not bad for a commercial vehicle. Many see Falcon Heavy as a powerful, cost-effective alternative to NASA's pricey SLS rocket, giving Artemis a way forward without breaking the budget. One possible scenario involves using Falcon Heavy to launch the Orion spacecraft into low-Earth orbit. In the current Artemis III plan, Orion first reaches LEO, where the crew runs system checks and gets ready for the translunar injection burn. Normally, the Interim Cold Propulsion Stage, or ICPS, booster handles that burn, pushing Orion toward the Moon. But with Falcon Heavy, the rocket could launch both Orion and ICPS together into Earth orbit. Performance-wise, Falcon Heavy can handle it. In its fully expendable configuration, it can lift up to 63,800 kilograms, about 140,000 pounds, to low-Earth orbit. Meanwhile, the combined weight of Orion, the European Service Module, and the fully-fueled ICPS is around 56,000 kilograms, or about 123,000 pounds. So the numbers work, and the capabilities are already there. In an alternative scenario, where Falcon Heavy replaces the SLS, the overall mission profile would need some adjustments, maybe even dropping the ICPS booster altogether. By changing the flight plan, Falcon Heavy could potentially send Orion almost all the way to the Moon on its own. That approach would simplify things quite a bit. It would mean less integration work between Orion and Falcon Heavy, and it would eliminate the need for the ICPS, which isn't reusable anyway. According to SpaceX, Falcon Heavy can lift more than 26,300 kilograms to geosynchronous transfer orbit. From an energy standpoint, that orbit isn't far off from what's for a translunar injection. The difference is only about 700 meters per second of delta-v. That's where Orion's own propulsion system comes into play. The Service Module can provide up to 1.8 kilometers per second of delta-v, which, at least on paper, would be enough to make up that shortfall and complete the push toward the Moon. There'd still be some fuel left for midcourse corrections, too. The tradeoff is that Orion probably wouldn't have enough propellant left to enter lunar orbit once it got there. Instead, the spacecraft could take a free-return trajectory, looping around the far side of the Moon and heading straight back to Earth. It's a smart, fuel-saving path that was actually used as a backup during the early Apollo missions. If something went wrong, that trajectory would let the crew coast safely back to Earth without needing another big engine burn after the translunar injection. At this stage, one of the biggest hurdles is figuring out how to make two very different spacecraft work together. Falcon Heavy and Orion. To start, Orion would need a larger payload fairing to fit comfortably with all its components. Its launch abort system, which was designed specifically for the wider SLS core, would also have to be reworked to fit Falcon Heavy's slimmer frame. That alone would mean a lot of aerodynamic modeling, structural redesigns, and extensive testing. On top of that, engineers would need new structural adapters to safely connect everything together. And that's where an even bolder idea enters the conversation. What if Orion were replaced entirely by Crew Dragon? In that case, SpaceX could use its already operational Falcon Heavy to send a Dragon capsule into low lunar orbit, while another Falcon Heavy launches a separate lunar lander. Once both vehicles are in orbit around the Moon, the crew could transfer from Dragon to the lander for the descent. Of course, Dragon wasn't built for deep space travel. To make that work, it would need some major upgrades, starting with its re-entry and thermal protection systems to handle higher speeds and temperatures, plus life support improvements for a multi-day lunar trip. Its current communications setup depends on GPS, which doesn't function beyond Earth orbit, so a new deep space navigation and communication system would have to be installed. Then there's radiation. The deep space environment is far harsher than low Earth orbit, so while better shielding could protect the astronauts, the spacecraft's electronics would need to be hardened to survive. Finally, Crew Dragon doesn't have the Delta V needed to enter and exit lunar orbit on its own. That means it would need an extra propulsion stage or some other method to give it the push to reach the Moon and the power to come back home. All of that might sound ambitious, but it's actually within reach. SpaceX has already floated a concept like this before, using their Crew Dragon spacecraft, launched by a Falcon Heavy, for a crewed trip around the Moon. It was pitched as an alternative approach to NASA's Artemis program, and the plan was surprisingly practical. Here's how it would work. First, a Falcon 9 rocket would launch Crew Dragon and its astronauts into low Earth orbit. Then, a Falcon Heavy would lift off separately, carrying its upper stage loaded with fuel. Once both vehicles were in orbit, Dragon would rendezvous and dock with the Falcon Heavy upper stage. From there, the upper stage would handle all the major burns, sending Crew Dragon on a path around the Moon and then back to Earth. Within that plan, there are two main variations. One uses just Crew Dragon and the Falcon Heavy upper stage to handle every key maneuver. The trans-lunar injection, lunar orbit capture, and the return burn. The other option adds a smaller propulsion stage launched alongside Falcon Heavy, which would take over for the lunar orbit insertion and Earth return phases.