Disaster! Starliner Astronaut Exposed NASA's Fatal Flaw on Manned Missions...

NASA's Artemis lunar mission is being forced to slow down due to delays and technical issues with the agency's own vehicles. Meanwhile, rival superpower China is making developments considered quite agile in their lunar conquest plans, despite starting decades later than the United States with a more outdated foundation. Given this context, many people believe that NASA might be rushing its space program to the point of putting astronauts in risky situations. A notable example is the incident involving two astronauts on the first crewed flight of the Starliner spacecraft, which makes us think about Orion, a critical component of the Artemis program, currently facing numerous issues. So, let's find out on today's episode of AlphaTech. In a post shared on X, NASA astronaut Charlie Camarda, who flew his first space mission aboard the STS-114 shuttle, voiced his concerns about the first crewed flight of the Starliner spacecraft. Camarda, who formerly served as a senior advisor for engineering development at NASA's Langley Research Center, and later as a senior innovation advisor in the office of the chief engineer at Johnson Space Center, stated, NASA is risking more astronaut lives on Artemis II because we will lose the race to the moon to the Chinese because of their failed Artemis moon architecture. Astronauts lost. Control of Boeing, Starliner, while docking with International Space Station. Honestly, at first glance, the stories of Starliner and Artemis may seem unrelated. However, when looking at the broader picture, we can see similarities in how NASA is handling issues with Starliner, and how it is managing challenges with Orion, the spacecraft intended to carry astronauts around the moon. The Starliner mission with its two astronauts is still the subject of intense discussion. But what's truly concerning now isn't just Starliner itself. It's how Boeing, and more importantly, NASA, are managing the inherent risks involved in launching a brand new crewed spacecraft. It was only after the astronauts returned that we learned just how dangerous it was to allow Starliner to dock with the ISS. Astronaut Butch Wilmore revealed that the Boeing Starliner faced critical thruster failures during its rendezvous with the International Space Station, ISS nearly losing full control and warranting an abort of the docking attempt under standard flight rules. Despite prior concerns from uncrewed test missions, the launch on a ULA Atlas V rocket proceeded smoothly, and Starliner initially performed well. However, as it neared the ISS, two thrusters failed, prompting Wilmore to take manual control. NASA, nevertheless, waived its abort rules, and then two more thrusters failed. Facing a dire situation where Starliner couldn't dock or safely re-enter Earth's atmosphere, Wilmore handed over control to mission control in Houston. NASA remotely rebooted the system and recovered two thrusters, allowing a successful docking. Although the crew was safe aboard the ISS, Starliner was deemed too unreliable to guarantee a safe return, leaving Wilmore and his team effectively stranded. In the end, they had to wait for SpaceX's Dragon Crew rotation mission to return home, nine months later. The entire experience aboard Starliner was a nightmare for the astronauts. But the truth is, NASA officials, and even Boeing, don't seem to fully grasp what that was like. Phrases like, ''We're taking our time to get it right'' or ''The spacecraft is performing well overall'' gloss over the fact that the astronauts were effectively stranded for months. To a public now used to clear, transparent mission updates from the companies like SpaceX, NASA's optimism feels increasingly out of step with the real risks. Two lives could have been in serious danger if re-entry had failed. This situation brings to mind the ongoing issues with Orion, the spacecraft set to carry astronauts around the moon in Artemis II. Orion's heat shield problems stem from its uncrewed Artemis I mission in 2022. The shield, made from an ablative material called Avcoat, is supposed to gradually burn off to protect the spacecraft as it re-enters Earth's atmosphere at speeds of nearly 25,000 miles per hour and temperatures of around 5,000 degrees Fahrenheit. However, during Artemis the Fern, the shield didn't perform as expected. Instead of gradually ablating, large chunks cracked off, leaving a debris trail. Post-flight inspections revealed over 100 pitted areas, raising serious concerns about future crew safety. After a long investigation, NASA finally pinpointed the cause of the issue about six months ago. While we won't delve too deep into the technical details, the key takeaway is that this wasn't just a flaw. It had the potential to become a disaster, much like what happened to the Columbia shuttle in 2003. As a result, many have urged NASA to completely redesign the heat shield. But NASA chose not to do so. Instead, they plan to use the same shield design for Artemis II, tweaking the flight profile and relying on ground testing to reduce risk. Still, doubts remain over whether these changes are enough. If a crew had been aboard Artemis the Ferns, they would have survived. The cabin temperature remained around 70 degrees Fahrenheit. But falling debris could have damaged the parachutes, a scenario NASA wants to avoid at all costs. Goodness, what am I even saying? But this is the harsh reality we have to face. NASA is unwilling to delay the Artemis II schedule despite Orion's issues. That means the astronauts on Artemis II may be facing life-threatening risks. Clearly, one of the driving factors here is the intensifying space race, as China rapidly advances not only its lunar program, but its entire space industry. Their Chang'e program has notched impressive wins. Since 2007, they've launched orbiters, landers, and rovers, with Chang'e-5, 2020, returning lunar samples from the near side, and Chang'e-6, 2024, grabbing samples from the far side, a global first. They've also landed on the far side with Chang'e-4 in 2019, something no one else has done. These missions show China's got the tech for robotic exploration nailed down, and they're methodically building toward crewed landings. China's stated goal is to put Tychonnades on the moon by 2030, using the Mengzhou spacecraft and Lanyu lander. They're testing key systems, think lunar spacesuits unveiled in September 2024, and the Long March 10 rocket. Their Tiangong space station, operational since 2021, proves they can sustain a long-term human presence in orbit, a stepping stone for lunar missions. Upcoming robotic missions, Chang'e-7, 2026, and Chang'e-8, 2028, will scout the South Pole for resources like water ice and test in-situ resource utilization, like 3D printing lunar soil. They're also pushing the International Lunar Research Station, ILRS, with Russia and others, aiming for a base by the mid-2030s. Although China has not yet caught up to the United States in the race to the moon, its steady development makes future outcomes unpredictable. In terms of space industry capabilities, China currently ranks second only to SpaceX. Since the end of the Cold War, the United States has enjoyed decades of being an undisputed leader in space exploration and orbital infrastructure. With more advanced satellites and more ambitious missions than any other power. However, U.S. orbital launches were very expensive. The space shuttle program was ultimately a failure when it came to making a reusable launch vehicle that was actually cost-effective. Russian rockets were the cheapest mass-to-orbit system into the 2000s and, as the space shuttle was phased out, were necessary for ferrying American astronauts to the ISS. Elon Musk's SpaceX changed that and single-handedly brought about U.S. dominance in launch vehicles. The company's success in developing vertical takeoff-vertical landing VTVL rockets unlocked much more efficient reusability than the space shuttle ever did. With reusability, you don't need to build a completely new rocket for every launch. Merely refurbish and refuel it for the next flight. Truly reusable VTVL launch vehicles are effectively impossible for single-use rockets to compete with. The typical price an external customer pays for a SpaceX Falcon 9 launch bottoms out at roughly $2,500 per kilogram, with an up to 23 metric ton payload to LEO, depending on the configuration. Elon Musk in 2020 even estimated the marginal per-launch cost for Falcon 9 at about $15 million, which is under $1,000 per kilogram. The price is widely considered the best available. While launch costs are difficult to directly compare due to the unique requirements of each customer and the lack of public information in many cases, the Chinese Long March 5B costs about $3,000 per kilogram with a payload of about 25 metric tons. This puts Chinese launch vehicles behind SpaceX but ahead of everyone else. For example, United Launch Alliance, a U.S. launch provider, has the Vulcan Centaur, which costs about $4,000 per kilogram, Europe's Ariane 5 costs about $9,000 per kilogram, and Russia's Proton costs about $4,300 per kilogram. Without SpaceX, China would have the world's cheapest satellite launch costs. SpaceX uses metal 3D printing technology to produce reusable rocket engines as well as complex arrays of sensors and control systems to enable vertical landing. China already has a robust capital equipment industry, including companies with 3D printers for metal. For example, upstart Chinese rocket maker Galactic Energy has been working with the Chinese 3D printing company Farsun Technologies to develop fully reusable rocket engines. While Chinese suppliers are almost certainly technologically behind SpaceX suppliers, the necessary machining systems, while advanced, will likely take just years, not decades, to develop. While successfully developing VTVL is a difficult engineering challenge, there is no clear proof of possibility and a clear incentive to catch up. To fulfill the more ambitious goals the Chinese government has set, they have to develop the capability to bring larger payloads to orbit and do it at an even lower cost per kilogram. Without such heavy and ultra-heavy launch vehicles, projects such as a manned moon or even Mars mission become prohibitively expensive. The same is true of maintaining extended space infrastructure such as new space stations, orbital weapons, or satellite megaconstellations. When it comes to more ambitious payloads, SpaceX is far and away the dominant launch provider, both in the U.S. and globally. Falcon Heavy rockets are the cheapest option for super-heavy launches to energetically demanding orbits, delivering 50 to 64 metric tons to LEO and 27 tons to geostationary transfer orbit, which is used for communication and observation satellites that do not require low latency. Starship, the most ambitious rocket under development by SpaceX, is likely to achieve even better prices per kilogram, with even more mass to orbit. Whether the United States maintains its role as the preeminent pioneer in space exploration and, hopefully, colonization and resource extraction will depend on whether the American space industry can stay decisively ahead of China. Old American launch providers, namely Boeing, Lockheed Martin, and Northrop Grumman, are making relatively few and rather expensive launches every year. They continue to receive government contracts such as satellite launches for the U.S. Space Force. The old guard of launch providers is also deeply involved in the Super Heavy Lift Space Launch System, SLS, under development for the Artemis program to return to the moon. This expendable rocket, which is expected to cost in excess of $2 billion per launch with a capacity of 70 to 130 metric tons to LEO and 27 to 46 tons to lunar orbit, has faced constant delays and cost overruns. These dead player institutions are unlikely to ever catch up to SpaceX, so this is likely a waste of U.S. funding. There is, however, one notable alternative to SpaceX. Jeff Bezos' Blue Origin successfully completed the first orbital launch of its partly reusable heavy lift New Glenn rocket on January 16. The core institutions of the Chinese space industry have, in contrast, long been large state-owned enterprises. The Long March family of rockets that have been manufactured by such enterprises for over 50 years continue to be the workhorse of Chinese orbital launches. The China Aerospace Science and Technology Corporation, CASC, and the China Aerospace Science and Industry Corporation, CASIC, both maintain strong connections to defense technologies, from missiles to drones. These companies benefited massively from a transfer of Russian technology starting in the 1990s and continuing to the present day. That's all for today's episode. Thank you so much for watching and see you next time.