Blue Origin Shocked SpaceX & China to the Moon in 90 days…Here what Jeff Bezos did!

Blue Origin might be taking its sweet time with the new Glenn rocket, but don't count them out just yet. In fact, they could be the first to pull off a lunar landing in this new space race, ahead of both SpaceX and China. Their first Blue Moon lander, the Mark 1 Pathfinder mission, is already gearing up for launch this year. That's a big deal, but how did they catch up so quickly, and what makes them confident they can beat the competition to the moon? So, in today's episode of TechMap, we're breaking it all down. Blue Origin's game plan, the tech powering their lunar dreams, and the critical obstacles they still need to overcome. In early March 2024, Blue Origin announced plans to launch the first version of its Blue Moon lander, called Mark 1, within 12 to 16 months. Mark 1 is a cargo lander, and we got our first look at a mock-up back in October 2023. The upcoming Pathfinder mission, MK1SN-001, will serve as a crucial demo, showing off the vehicle's key capabilities. That includes testing the BE-7 engine, cryogenic fluid power, and propulsion systems, avionics, maintaining solid communication links, and most importantly, landing with high precision, within about 328 feet, 100 meters. This mission will also carry NASA's science payload to the moon's south polar region. One major goal is to study how the lander's engine plume affects the lunar surface. NASA's suite of cameras for this, called SCALPS, Stereo Cameras for Lunar Plume Surface Studies, will help prepare for future crewed landings. After that Pathfinding flight, the Mark 1 will be available for commercial use, but MK1SN-001 is more than just a demo. It's a vital step in proving the technology behind Blue Origin's human landing system, also called Blue Moon, which is being developed for NASA. What's surprising is the tight timeline. Blue Origin is aiming for a moon landing by summer 2025, just 12 to 16 months after their announcement, even though the project officially kicked off in May 2023, when NASA awarded them a $3.4 billion contract to build a second lunar lander for the Artemis program. The trip to the moon itself takes only a few days, so if everything stays on track, Blue Origin could beat both SpaceX and China to the next uncrewed landing. Right now, SpaceX is targeting 2026 for its first uncrewed Starship lunar landing. That demo is key for preparing Artemis 3 in 2027 and Artemis 4 in 2028. On the other hand, China is gearing up for Chang'e 7 in 2027-2026, a mission focused on the moon's south pole. While it won't be China's first lunar lander, it will be the first to target the lunar south pole with an integrated mission architecture, including lander. Chang'e 3 2013 and Chang'e 4 2019 successfully deployed landers and rovers on the moon's near and far sides, respectively. Chang'e 5 2020 and Chang'e 6 2024 also involved lunar surface landings for sample return missions. Anyway, if you loved this deep dive, smash that like button, hit subscribe and ring the bell. We're aiming for 150,000 subscribers, and we need you to get there. If Blue Origin pulls this off, it would be a major win for the US in the ongoing space race with China, and honestly, their timeline is starting to look realistic. Blue Origin has a real chance to speed up the development of its Mark 1 lander thanks to its simplified design. The Blue Moon Mk1 stands just 8 meters tall, that's half the height of the upcoming Blue Moon Mark 2, and way shorter than SpaceX's Starship HLS. It's built for modest missions, carrying only about 3 metric tons of cargo to the moon. But what it lacks in size, it makes up for in simplicity. This tiny, expendable lander follows a single launch strategy. New Glenn will send it straight into a lunar transfer orbit. There's no need for multiple launches or assembling parts in space. All the fuel needed, from launch through landing, is already on board. It's a plug-and-play system that cuts down risk and complexity, and that could be a key reason why Blue Origin might get there ahead of the competition. Compare that with Starship HLS, and things get way more complicated. Despite being in the uncrewed demonstration mission, SpaceX will still launch the actual crewed version of Starship HLS spacecraft, but operate it without astronauts on board. Starship is a massive, multi-stage, super-heavy spacecraft, packed with technology we've never seen fly before. It needs in-orbit refueling just to reach the moon, which means multiple Starship launches must succeed before a single one can even make the trip. Add to that deep-space operations, and landing the largest rocket ever built with precision on the moon, it's an ambitious and complex challenge that's bound to stretch timelines. And let's not forget the testing issues. Starship's ongoing flight tests out of Boca Chica have faced several hiccups, delaying the system's timeline. While Blue Origin is building a simple, robotic cargo vehicle, SpaceX has to prove a much more advanced and intricate system, even for an uncrewed mission. Then there's NASA's own program requirements. Before any astronauts fly, NASA requires that SpaceX first demonstrate a fully integrated mission, including a successful uncrewed moon landing and in-orbit refueling. These are tough milestones, and after recent test setbacks, it adds even more uncertainty, likely pushing Starship's uncrewed mission into 2026. In contrast, Blue Moon Pathfinder is a lightweight, uncrewed lander. It's not crew-rated, so the regulatory hurdles are much lower. There's no need for docking or fuel transfers in orbit. That streamlined approach lets Blue Origin move quicker, with fewer steps and risks. Meanwhile, China's Chang'e-7 mission is also quite ambitious. It's a robotic exploration package that includes an orbiter, a relay satellite, a lander, a rover, and even a small flying hopper probe. Altogether, it weighs in at 8,200 kilograms, with 415 kilograms dedicated to scientific instruments. The orbiter will carry and release all the components after reaching lunar orbit, then begin its own science mission with five onboard instruments. The relay satellite ensures communication with the moon's south pole and supports radioscience experiments and high-precision measurements using VLBI, Very Long Baseline Interferometry. The lander will touch down near the lunar south pole and carry a rover and flying mini-probe to the surface. Once there, it'll deploy the probe, which will explore permanently shadowed areas, searching for water molecules with its onboard analyzer. After a short stay, it'll fly to a sunlit crater rim. The rover will roll off the lander and carry out surface science using its own instrument suite. So while Chang'e-7 is technologically advanced and exciting, it's also highly complex, much like Starship's HLS mission, and that complexity can slow things down. Blue Origin, on the other hand, is betting that a simpler, more focused mission might just win the race to the moon. But let's be clear, it's not just the simplicity of Blue Origin's design that gives them an edge. They've also gained valuable lunar experience through partnerships, even if they haven't landed a spacecraft of their own on the moon yet. Take PlanetVac, for example. It's a clever, low-cost sampling system designed to boost scientific returns from missions to other worlds, like the moon. It works by releasing a burst of gas onto the surface, which kicks up lunar soil, regolith, into a collection container for onboard analysis, or possible return to Earth. The genius of PlanetVac lies in its simplicity. Just one moving part, a valve to release the gas. It's small enough to mount directly onto a lander, and was built by Honeybee Robotics, which is now a Blue Origin company. Then there's LISTER, short for This is a next-level drill system capable of digging three meters into the moon's dusty surface. Every 50 centimeters, it pauses to insert a thermal probe that measures heat flow in the soil. Specifically, it looks at how temperature changes with depth, and how well the material conducts heat. These insights can help scientists map out how the moon's interior has evolved over time, according to Dr. Sichi Nakahara, the project's lead scientist. Now, while these instruments made it to the moon aboard Firefly Aerospace's lander, not one of Blue Origin's own. Their presence still matters. It means Blue Origin has hardware operating on the lunar surface. That kind of real-world experience with lunar conditions is invaluable, and it puts the company in a stronger position to successfully land its own spacecraft this year. That said, Blue Origin isn't without its own set of challenges, and they're pretty significant, especially when it comes to landing on the moon. One of the biggest technical hurdles they face is managing cryogenic fuel and building launch and landing systems that are both powerful and reliable. First of all, cryogenic fuel storage and space refueling. Let's start with the fuel. Both the Blue Moon Mark 1 and Mark 2 landers run on a hydrolox mix, liquid hydrogen and liquid oxygen. These are great for performance, but a nightmare to store. Hydrogen in particular needs to be kept at negative 253 degrees Celsius, 20 Kelvin, and even tiny amounts of heat can cause it to boil off. That's why Blue Origin needs to master advanced cooling tech like zero-boil-off systems if they want to store this fuel for weeks in orbit, especially in the near-rectilinear halo orbit, where Artemis missions are staged. Then there's in-orbit refueling. The crewed Mark 2 lander needs to be topped off in space to make the full trip to the moon. That's where Blue Origin's Cislunar Transporter comes in, a kind of orbital gas station that can refuel the lander. But moving super-cold liquid fuel in zero gravity is no joke. The fluid doesn't behave like it does on Earth. It floats around in droplets and needs specialized pumps and tanks to keep it contained and transfer it efficiently. This part of the mission alone has caused major delays in Blue Moon's development. Third, New Glenn's track record, or lack of it. Another major piece of the puzzle is the New Glenn rocket, Blue Origin's heavy lifter meant to launch the Blue Moon landers. As of mid-2025, New Glenn has only flown once. That first flight in January 2025 did make it to orbit, but the mission wasn't a complete win. The reusable first stage failed to land after three of its BE-4 engines didn't restart properly. So while the rocket technically worked, it's still unproven, and Blue Origin is counting on it to send the much heavier Mark 2 lander into space. On landing challenges, design and precision. Now let's talk landers. The Mark 1 design was criticized for being tall, top-heavy, and having a narrow landing footprint. Not great for the rugged terrain of the moon's south pole. The astronaut carrying Mark 2 is a bit better with slightly wider legs, but it's still quite tall and has similar concerns. Landing at the lunar south pole is no easy feat either. It's not just about touching down, you've got to do it precisely within 100 meters of your target. That kind of pinpoint landing on such a rugged surface adds another level of complexity. Life support for astronauts. And finally, there's the fact that Mark 2 will carry people. That means it needs life support systems that can keep astronauts alive and comfortable for up to 30 days on the moon. Think breathable air, drinkable water, protection from radiation, and thermal control to handle the moon's extreme temperatures. That's a whole new ballgame compared to the uncrewed Mark 1. So while SpaceX faces its own challenges, like scaling up massive vehicles and figuring out how to refuel them in space, Blue Origin's road isn't exactly easier. From managing ultra-cold fuel, improving out the New Glenn rocket, to tackling precision landings and designing crew-safe habitats, Blue Origin has its own mountain to climb.