'SpaceX is Hiding Us what's really Wrong with Starship!'', Engineers revealed...

Over two years and nine flights in, some say Starship is falling short. Critics claim SpaceX over-promised and under-delivered, calling the progress slow and results underwhelming. But are these claims fair? What's really behind the criticism and how should SpaceX respond? Let's dive into the full story in today's episode of Great SpaceX. For those who love aerospace, few things are more exciting than watching the daily progress of a rocket program, experiencing the emotional highs of each launch, and witnessing the journey from failure to success. This continuous evolution is a source of endless fascination and passion. However, for others who take a more practical and results-driven perspective, the focus is different. These individuals tend to evaluate a project based on tangible outcomes. And from that point of view, after more than two years and nine test flights, Starship has not yet reached orbit, has not successfully landed both of its stages, and has shown no concrete progress related to the moon or Mars. These are the facts they choose to highlight. Beyond the lack of visible milestones, critics often dig deeper to highlight what they see as fundamental contradictions in the Starship program. Beginning with its design philosophy. One of the most discussed topics involves the relationship between Starship's thrust, mass, and payload capacity. Let us start with the question of thrust. Starship is often promoted as the most powerful rocket ever built. This statement is likely true in theory, but some argue that the rocket has yet to demonstrate its full potential. For instance, the Raptor 2 engine is rated at around 230 tons of thrust. With 33 engines, the super-heavy booster could produce a total liftoff thrust of approximately 7,590 tons. Raptor 3 is expected to boost that number even further, with estimates ranging from 9,000 tons to possibly 10,000. These figures are indeed impressive and would make Starship the most powerful launch system on Earth. However, SpaceX has never officially confirmed that the rocket has reached these numbers in practice. And without verified performance at those levels, the estimated payload capacity has also not been met. For example, the original V1 version of Starship was believed to be capable of carrying up to 100 tons to orbit. Yet real-world performance suggests that it may only support a payload of around 50 tons. V2 has been estimated to handle around 150 to 200, but in reality, it might only be managing around 100 tons. This shortfall raises concerns that SpaceX may have overstated the capabilities of its rocket and engine system, and when the actual performance fails to meet the initial terms, it causes doubt about the viability of the long-term mission plans, especially those involving lunar and Martian travel. Digging further into the issue, the problem is not only with insufficient thrust, but also with the mass of the vehicle. Starship is heavy, perhaps too heavy. Past disclosures suggest that the dry mass of Super Heavy alone is approximately 200 tons, and the ship adds another 100 tons. SpaceX has acknowledged that the vehicle is heavier than ideal, which is why every new version is designed with weight reduction in mind. Still, whether these efforts are actually effective remains unclear. In fact, attempts to reduce Starship's mass have created new concerns. SpaceX has chosen to simplify many internal systems, removing components they deemed unnecessary. While this may help reduce weight, it also introduces greater vulnerability to failure. For example, the V2 version's fuel tanks have had persistent problems. During Flight 8, a fuel tank issue led to the mission being aborted before launch. In Flight 9, a leak in the tank caused the ship to lose control. Additionally, several protective systems that were present in earlier versions have reportedly been removed, which may be contributing to increased engine issues. In response to these problems, SpaceX has attempted to reintroduce some protective elements, including fire suppression systems and structural reinforcements. However, doing so increases the mass gain, and the improvements in reliability have not yet been convincing. There is also an ongoing debate surrounding the materials used to build Starship. SpaceX famously chose stainless steel for its construction, citing benefits like durability, thermal resistance, affordability, and ease of manufacturing. But this decision has been controversial. Many believe that stainless steel significantly adds to the rocket's weight, which further reduces payload efficiency. Heavier materials also require engines to work harder, which can increase wear and introduce more points of failure. Some have suggested that SpaceX should consider switching back to carbon fiber, a much lighter material. Doing so could reduce structural mass, and in turn, lessen the pressure placed on the engines. These engineering challenges are compounded by the program's actual track record. Aside from the final two flights of 2024, most test missions have experienced some form of failure. In some cases, previous issues were resolved only for new problems to appear, suggesting that many systems are still far from being fully mature. All of this has come at an enormous cost. After two years, nine test flights, and the construction of a massive ground support infrastructure, the Starship program has already consumed billions of dollars. This is a far cry from the affordable launch solution SpaceX originally promised. And these are just some of the critical points that have been raised regarding Starship. So what do you think about these arguments? Do they make a fair case? Do you agree or disagree? Let us know your thoughts in the comments by answering yes or no, and feel free to explain your reasoning. For me, I do not fully agree with the criticisms directed at Starship. Surprise, surprise there. It is completely understandable for any brand new rocket system to face significant technical challenges. This is true not only for SpaceX, but for all aerospace organizations developing next generation launch vehicles. The reason Starship encounters more visible problems is because SpaceX takes a different, far more aggressive approach to development compared to traditional organizations. Many other agencies prefer a slower, more cautious method. They take their time after each launch to analyze data, identify problems, make corrections, and only then prepare for the next flight. For example, it took NASA over two years to publicly address the issues with the Orion spacecraft. United Launch Alliance needed about nine months between their first and second Vulcan flights. Ariane 6 has had gaps of up to eight months in its development cycle. And Blue Origin launched in January and there is still no official date for their next mission. SpaceX, on the other hand, embraces a philosophy of continuous testing, rapid iteration, and learning from failure. If it were not for regulatory constraints imposed by the FAA or ongoing legal pressure from environmental groups, Starship might have already flown far more than nine times. Thanks to this approach, SpaceX has already accomplished some groundbreaking milestones, such as attempting to catch a super heavy booster with the Mechazilla arms, the most ambitious landing maneuver in aerospace to date. One must wonder if any other space company would even attempt such a feat. For those who still doubt SpaceX's development model, they should consider the Falcon rocket family. SpaceX followed the same philosophy of incremental innovation and relentless testing to evolve from Falcon 1 to Falcon 9 and then to the heavy-lift Falcon Heavy. Today, Falcon rockets dominate the global launch market with unmatched frequency, cost efficiency, and reusability. The level of performance achieved by Falcon would have been considered nearly impossible just a decade ago. These results did not come from traditional risk-averse engineering. They came from innovation and iteration. There is no reason to believe Starship cannot follow the same path. What SpaceX envisions for Starship is more ambitious than anything in the history of spaceflight. The company plans to reach an unprecedented launch pace of up to 25 missions in a single year, 400 flights over four years, and eventually, multiple daily launches when windows to Mars open. These numbers are not just bold. They are essential. Sustained human presence on the moon or Mars requires thousands of flights to deliver equipment, build infrastructure, send crews, and supply cargo. SLS, New Glenn, and Vulcan will likely never reach this scale of operation in the current decade or even in the next. Starship is the only system being actively developed with this level of throughput in mind. To support such frequencies, Starship is designed for full reusability. That is why SpaceX chose stainless steel as the primary structural material. Despite the criticism, stainless steel offers multiple advantages. It is durable, affordable, heat-resistant, and easy to manufacture. More importantly, it is ideal for the kind of self-sufficient operations required on Mars, where building replacement parts or even entire spacecraft may need to be done locally. Methane and liquid oxygen, or methalox, engines also play into this strategy. These fuels can be produced on Mars through in-situ resource utilization. Stainless steel and methalox make Starship more viable for deep space missions than any carbon fiber rocket could be. Carbon fiber may offer weight savings, but it is expensive, more difficult to work with, and much harder to scale for mass production. With these design choices, SpaceX is building a foundation for large-scale Starship manufacturing. Its architecture supports rapid turnaround between flights, especially through its bold plan to land directly onto the launch tower using Mechazilla. Though challenging, this approach could allow for unprecedented launch cadences and the lowest cost per launch in history. That kind of performance is not apparent today, but it is likely to become reality as the system matures. Compare this to rockets like SLS, which cost billions of dollars per launch and are limited to just a few flights per decade. Starship, in contrast, could fly hundreds or even thousands of times for the same cost. That kind of scalability is what makes it so revolutionary. Starship embodies the spirit of innovation. Many critics argue that the system is too flawed, that SpaceX should return to more conventional designs or materials. It is true that innovation involves risk, but rejecting change out of fear only holds back progress. If we constantly cling to past methods, we risk abandoning the very tools that can take us forward. And if you remain skeptical, consider how deeply Starship has been integrated into the future of space exploration. NASA selected Starship to deliver astronauts to the surface of the moon. The U.S. Department of Defense has shown strong interest in using it for high-speed cargo delivery and other missions. These are not organizations that are easily swayed by hype. Their support shows a clear recognition of Starship's potential. Across the world, we are now seeing companies and countries develop Starship-like vehicles. That kind of imitation only happens when something is truly transformative. What SpaceX needs most right now is time and the opportunity to keep testing. Yes, there are still contradictions in the relationship between Starship's mass, thrust, and payload capacity. But these are not reasons to abandon the project. They are challenges to overcome. SpaceX must continue refining the system until it meets its full potential. The future of affordable, scalable, and sustainable spaceflight may well depend on it. In short, the doubts surrounding Starship after its setbacks are entirely understandable. Many of the criticisms raised are valid and highlight the real challenges that SpaceX continues to face in developing this ambitious rocket. However, it is important to recognize that Starship is not just another spacecraft. It is a bold attempt to achieve something never done before. Failures and criticisms are natural parts of that journey. Rather than treating these criticisms as obstacles, SpaceX should embrace them as valuable feedback. Insights that can guide the team toward better solutions and smarter decisions. That is how true progress is made. It is this ongoing effort and determination that continue to earn our admiration and support for the SpaceX team. If you believe in their mission, show your support by replying, keep going, in the comment section down below. This has been Kevin with GreatSpaceX. If you enjoyed the video, be sure to like and subscribe to stay up to date with the latest on SpaceX's journey. Thank you for watching, and always remember, curiosity, imagination, and inspiration will follow as long as you keep looking up.