SpaceX

SpaceX is known for its rockets. What is less known is its growing and striking fleet of aircraft

by

To build the largest rocket in the world, SpaceX needs logistics commensurate with its scale. And that includes a Boeing 737 with the company logo. SpaceX planes. Elon Musk’s aerospace company not only manages rockets and satellites. As it has grown, it has bought airplanes until ending up with a small private airline that connects its centers in California, Texas and Florida. Until a year ago, the entire fleet was made up of private jets, but SpaceX ended up acquiring a complete commercial plane: a Boeing 737-800 that it uses to move workers and components with agility. The history of the N154TS. A few days ago, the Los Angeles “planespotters” recorded a landing of SpaceX’s largest plane, in its black and dark gray livery, with details such as the Starship thermal tiles on the tail. The Boeing 737-800 entered service in 2002 for Air China and was later converted into a cargo aircraft. Now, under ownership of Falcon Aviation Holdings LLC (a subsidiary of SpaceX) makes trips between Los Angeles, Brownsville and Florida, where SpaceX’s three major headquarters are located: Hawthorne, Starbase and Cape Canaveral. The four Gulfstreams. SpaceX is a private company, but thanks to crawlers like GrndCntrl We also know the rest of the fleet. Owned by SpaceX are: a Gulfstream G650ER primarily associated with Elon Musk, two Gulfstream G550s used for critical logistics and executive transportation, and a Gulfstream G450 linked to Gwynne Shotwell, SpaceX’s president and chief operating officer, who lives between Washington and Starbase. The Boeing was the last plane to join the fleet. While a private jet like the Gulfstream moves a few executives, a 737 can transport dozens of engineers and support teams in a single trip, something vital for moving a workforce during a launch campaign. But is it profitable? Buying a commercial plane instead of charter flights only makes economic sense for a company the size of SpaceX. The ability to move engineers with sensitive tools and hardware without going through commercial airport security saves a billion-dollar aerospace company thousands of work hours a year. In addition, there is an undeniable aesthetic component. Like its rockets, the company takes care of the image of its planes. As they commented from Teslaratithe aircraft is not only functional for transporting support equipment between launch sites; It also has a coat of paint that attracts everyone’s attention.

SpaceX changed the space economy. Now he wants to do the same with the cost of satellites

by

The cost of launching cargo into space was, for years, one of the great limits of the aerospace industry. LaNASA documents in several works, including the analyzes of Harry W. Jonesthat during the last decades of the 20th century many pitchers moved in a typical range of between 10,000 and more than 20,000 dollars per kilowith an average cost of around $18,500/kg in low orbit, with the space shuttle far above due to its complexity and operating expense. It was not just the price of the launch systems, but of a model based on disposable components, manual processes and highly specialized operations. The situation remained stable for decades, until SpaceX decided to rethink how the economics of orbital launch should work. Instead of assuming these costs as inevitable, the company opted to reuse stages, optimize processes and manufacture its own engines and systems from scratch. This combination allowed the price per kilo to be reduced to unprecedented levels, although the change did not occur immediately. What is relevant is that, for the first time, a private actor demonstrated that launches could be much cheaper and that price did not have to be a structural barrier for the industry. When launch is no longer the limit, attention shifts to satellites The resulting prices began to change behavior in the sector. With Falcon 9 and Falcon Heavy, the cost per kilo became in the range of 3,000 to 1,500 dollars, according to NASA calculations based on catalog prices. These figures not only mark a reduction, but a turning point: for the first time, companies, institutions and even governments could rethink the design of missions knowing that launch was no longer the main economic barrier. From there a question arose that until then had no answer: if the trip had been made cheaper, what would happen to what was sent into space? The traditional satellite model was built on the idea of ​​optimizing each unit. It was not important to produce many, but to produce one that could operate for years, with high capacity and low probability of failure. Manufacturers and operators were investing in complex systems, with long development cycles, exhaustive testing and specialized structures to fulfill specific and prolonged missions. This strategy responded to an environment in which launch was so costly and infrequent that it was more profitable to prioritize reliability and durability than to think about scalability or rapid replenishment. One of the first companies to help change this approach was OneWeb, that introduced a manufacturing model designed for scale. Instead of ordering each satellite as an individual piece, the company designed a common architecture and partnered with Airbus to produce repeatable unitswith standardized processes and shorter manufacturing times. The plant installed in Florida in 2019 was presented as the first factory of satellite serial production on a large scale, with two lines capable of removing up to two units a day. It was not about building a better satellite, but about building many. SpaceX took the satellite constellation idea and turned it into its own industrial system. With Starlink, it not only replicated the use of mass-produced satellites, but also linked that production to its launch capacity with Falcon 9, operated by the company itself. This integration allowed the deployment to be accelerated without depending on external release windows or commercial suppliers. The constellation began to grow at an unprecedented rate and, in a few years, it vastly surpassed any other similar project in number and pace. The difference was not only in manufacturing satellites, but in being able to launch them at will. Although OneWeb was one of the first players to apply industrial logic to satellite manufacturing, its constellation has grown at a very different pace than Starlink. At the end of 2025, OneWeb has around 648 satellites in orbit, while SpaceX exceeds 8,000 operational satellitesaccording to the most recent data published by orbital monitoring firms. The difference is not only due to the number of launches, but also to the mode of production. According to an economic analysis published in 2025the estimated manufacturing cost of OneWeb satellites is around $14,000 per kilo, compared to approximately $2,500 per kilo for Starlink satellites. These figures reflect a gap that has more to do with the integration model than with the technology itself. The estimated manufacturing cost of OneWeb satellites is around $14,000 per kilo, compared to approximately $2,500 per kilo for Starlink satellites. The reaction of the sector did not take long to arrive. With the advancement of Starlink, both companies and public institutions Similar projects began to be considered based on constellations with a high number of satellites and sustained deployments. Amazon launched KuiperEutelsat and OneWeb reinforced their alliance to maintain presence in the market and the European Union approved the IRIS2 program with institutional support.China is also working on its own large systems. It is not just about competing in numbers, but about accepting that scale and replacement capacity are part of the new spatial model. When the satellite becomes a replicable product, the way of planning its presence in orbit also changes. It is no longer about launching a mission and hoping it works for as long as possible, but rather about building a structure that can grow, modernize and replace units regularly. The satellite becomes a component of a network, not the center of the mission. This logic favors models based on scalability and continuous replacement, similar to those of other technological infrastructures. Space stops being a destination and becomes a platform. SpaceX demonstrated that the cost of the launch was not a technical limit, but rather a model one. Now it is trying to apply that same logic to satellites, with an approach based on scale, continuous manufacturing and integration with its own launch systems. The result is not only a larger constellation, but a different way of understanding what it means. operate in orbit. The question is no longer how much it costs to get to space, but who can … Read more

Europe has done the only thing it could do to compete with SpaceX and China in space: merge its largest companies

by

Europe has grown tired of watching from the sidelines how SpaceX and, increasingly, Chinaredefine the rules of the game in space. The continent’s response was inevitable: a historic fusion. The three European aerospace giants, Airbus, Leonardo and Thales, have signed a memorandum of understanding to combine its spatial divisions into a single, colossal enterprise. Merge or die. This is not news that we break every day. It is the most ambitious move in the European aerospace industry since the creation of the MBDA missile consortium in 2001. And at the same time, it is not an offensive move, but a strategic survival maneuver. Given the agility of reusable rockets and Elon Musk’s megaconstellations, the fragmentation of Europe had become an unsustainable burden. Now, the plan is to create a European champion with the critical mass necessary to at least be able to compete. A colossus about to be born. The agreement, which It’s been brewing for months. under the code name “Project Bromo”, it will give rise to a new company that, if approved by regulators, could be operational in 2027. The figures used give an idea of ​​the scale of the operation: a combined annual turnover of 6.5 billion euros, and nearly 25,000 employees spread throughout Europe. Airbus will have the majority stake with 35%, while the Italian Leonardo and the French Thales will share the rest almost equally, with 32.5% each. Despite the majority of Airbus, the government of the new colossus will be “balanced” and under joint control, as reported by the companies. What does each one contribute? Each partner will contribute his crown jewels in the space sector. Airbus will contribute with its Space Systems and Digital Space businesses. Leonardo will bring its Space Division to the table, including its valuable stakes in Telespazio and Thales Alenia Space. Thales will mainly contribute its shares in those same joint ventures (Thales Alenia Space and Telespazio) and Thales SESO. Why it was inevitable. The harsh reality is that Europe was falling behind, and very quickly. SpaceX’s disruption has been brutal, especially on two fronts: launch and satellites. While Europe continues recovering lost ground With the development of its Ariane rockets, Elon Musk’s company has not only radically lowered the cost of putting something into orbit, but has flooded the sky with its Starlink constellation and its military version, Starshield. Beating SpaceX is no longer possible. On October 19, the company surpassed a staggering number of 10,000 Starlink satellites launched in just over 300 launches of the Falcon 9 rocket. This network of small satellites has cannibalized the traditional market for large and expensive geostationary satellites, the pillar on which the business of European companies was based. The only thing Europe can do, and what this new giant is destined to do, is recover its technological sovereignty in space and, with it, its security. Image | Airbus In Xataka | “We are the company that has developed an orbital rocket the fastest”: PLD Space, one step away from making history from Spain

NASA has had enough of SpaceX and will offer the return to the Moon to other companies. Elon Musk has not taken it well at all

by

NASA’s strategy to return to the Moon has just been blown up. In a series of television appearances and public statements, the acting administrator of the US space agency, Sean Duffy, has announced a change of course: NASA is going to reopen the public tender to build the manned lunar landing module (HLS), a contract that until now was held by SpaceX alone for the Artemis III and IV missions. Because. The official reason is transparent: “We are in a race against China,” confirmed Duffy in an interview with CNBC. And in this race, “SpaceX is falling behind.” “Competition and innovation are the keys to our dominance in space, so NASA will open HLS production to Blue Origin and other large American companies.” “The president and I want to reach the moon during this president’s term.” The decision ends NASA’s “all-to-SpaceX” bet and reopens a multibillion-dollar battle for the most crucial contract in modern space exploration. As expected, Elon Musk has not remained silent. The hell of space refueling. To understand NASA’s frustration, you have to look beyond the delays in Starship test flights. The real bottleneck is the mission architecture itself. As analyzes Daniel Marín in Eurekathe lunar version of Starship is a giant 52-meter rocket that cannot reach the Moon without first refueling in low Earth orbit. This operation is of unprecedented complexity due to Starship’s cryogenic liquid fuel, which tends to evaporate. This is not a simple fuel transfer; It requires multiple launches of tankers (up to 15 or 20) to fill one or several orbital tanks that will then transfer hundreds of tons of liquid methane and oxygen to the lunar Starship. It is a technology that has never been tested on this scale. While SpaceX continues to deal with problems with its prototypes (Musk assures that version 3 of Starship will be able put 100 tons of cargo into orbit in 2026, but that was precisely the promise with version 2), NASA has gotten nervous. Every SpaceX delay is an unforeseen victory for China, whose lunar program is advancing at a methodical pace to put astronauts on the Moon before 2030. The Chinese Lanyue lunar module is much simpler than Starship. Plan B is Blue Origin. Duffy’s statement is not a bluff. There are already at least two clear alternatives on the table that NASA is seriously considering. Plan B is Blue Origin. But when Duffy mentions Blue Origin, he is not referring to the Blue Moon Mk 2 HLS module that Jeff Bezos’ company is already developing for the future Artemis V mission (and which, ironically, also requires complex orbital refueling). As revealed Eric Berger in Ars TechnicaBlue Origin has been quietly developing a plan B: a modified version of its Blue Moon Mark 1 lander. This vehicle, originally designed for cargo only, would be adapted to carry crew. Its great advantage: it would not require refueling in space. It would be a much simpler and faster solution, that we had already mentioned in Xataka. Plan C is Lockheed Martin. Duffy also said “maybe others.” Those “others” are the giants of the traditional aerospace industry, with Lockheed Martin at the helm. Traditional NASA contractors have assured Duffy that they can build an Apollo-style lunar module in 30 months. The proposal, backed by analysis like this one from SpaceNewswould be based on proven technologies: storable propellants (that do not evaporate like cryogenic methane and hydrogen) and already operational subsystems, such as those of the Orion spacecraft. Bob Behnken, vice president of Lockheed Martin, told Ars Technica who are up for the challenge: “We have been working with a cross-industry team… to address Secretary Duffy’s request to meet our country’s lunar goals.” Does it stick? The price. A contract of this type, cost-pluscould skyrocket to $20 or $30 billion, compared to $2.9 billion in the original SpaceX contract. But for Duffy, price appears to be a secondary factor if it guarantees arriving before China. Elon takes out the flamethrower. Elon Musk’s reaction to the threat of losing his lunar monopoly has been visceral and has come in several waves of tweets. First, Musk defended his company’s work. “SpaceX is moving like lightning compared to the rest of the space industry. Plus, Starship will end up doing the entire lunar mission. Mark my words.” He then moved on to direct attack against your rival with an incendiary claim: “Blue Origin has never delivered a payload to orbit, let alone to the Moon.” The tweet was quickly corrected by Community Notes of X, who reminded Musk that Blue Origin did reach orbit with its NG-1 mission on January 16, 2025. From contempt to insult. Seeing what was coming at him, Musk began to despise the very objective of the Artemis III mission. “A permanently manned lunar science base would be much more impressive than a repeat of what Apollo already did incredibly well in 1969.” A clear message: the race that NASA wants to win is irrelevant. Finally, the SpaceX CEO responded directly to a post by Sean Duffy about the “race against China” with a meme of a Ugandan anti-LGBT activist repeatedly asking “Why are you gay?” A derogatory reaction that makes it clear how bad the announcement felt. Beat China or beat Trump? While the “race against China” is the public justification, Ars Technica suggests a much more mundane domestic political plot. Sean Duffy is not the permanent administrator of NASA, but rather the acting Secretary of Transportation. According to the outlet’s sources, Duffy is immersed in a “fierce internal battle” to keep the job permanently, a position that the billionaire and private astronaut Jared Isaacmanwho apparently has regained his good rapport with President Trump. Duffy’s television appearances would, in reality, be a political maneuver aimed at a single viewer: the president. By showing himself as a leader of action and results, willing to do anything to “beat the Chinese” and achieve a moon landing during Trump’s presidential term (which ends in January 2029), Duffy … Read more

the first SpaceX employee

by

The race to explode all the resources that the Moon offers You’re going to need new spaceships. If Starship manages to become a fully reusable rocket capable of landing and taking off from lunar soil, we will have a winning horse. Meanwhile, Elon Musk is finding competition where he least expects it. From Jeff Bezos to Tom Mueller. Starship delays are causing talk. If rumors emerged last week that NASA could turn to the Blue Moon Mark 1 lunar module of Blue Origin to take astronauts to the Moon in the event that SpaceX did not arrive in time to beat China, this week a very particular company has joined the race for the moon. In this case, Impulse Space wants to solve the challenges facing the commercial race to the Moon with an unmanned spacecraft capable of delivering up to three tons of cargo. And who is behind Impulse? None other than Tom Mueller, SpaceX’s first employee and the genius who designed the Falcon 9 rocket engines. Agility and pragmatism against Starship. Impulse Space, founded by Tom Mueller not as a new rocket launcher but to solve the challenges of orbital mobility once in space, has set its sights on the Moon. The company revealed its plans to develop a lunar landing module which would enter service in 2028. Mueller places his idea in a “critical gap” in the market: a medium-sized cargo ship. Impulse’s proposal is quite pragmatic. Instead of developing a completely new system from scratch, it will combine the Helios booster, already in development by the company itself for upper rocket stages, with a lander of its own manufacture. Helios would act as a cruise stage, transporting the craft to lunar orbit in a week. One of the keys to its design is that it does not require a complex series of refueling in orbit, like Starship and other systems based on cryogenic fuel. The Impulse module’s engine will use a combination of nitrous oxide and ethane bipropellant, which has already been successfully tested on its Mira orbital vehicle. This choice, according to the company, is safer and less toxic than traditional hypergolic propellants, and in turn avoids the evaporation problems of cryogenic fuels. A competitor who knows the house inside. What makes this ad fascinating is the pedigree of its founder. Tom Mueller was a fundamental player at SpaceX: he led the development of the Falcon 9 engines and now applies that experience to his own company. Including the speed that characterizes SpaceX. Impulse Space boasts of having carried its Mira spacecraft from the design table to operating in orbit in less than 15 months. But Impulse’s lander won’t just compete with Starship. It is located in a very interesting competitive niche. While Firefly’s Blue Ghost aims for lighter loads and future systems contracted by NASA, such as Starship itself or Blue Origin’s Blue Moon Mark 2 focus on enormous loads (30 and 100 tons), the Impulse proposal competes directly with the Blue Moon Mark 1, which also has a capacity of three tons, and which NASA could use to transport astronauts in a mission with several moon landings. But the big advantage of the Impulse design is that it is compatible with a wide range of launch rockets (Falcon 9, Vulcan, Ariane 6, etc.). Its system does not depend on a single supplier, which gives it considerable strategic flexibility. He who laughs last… At SpaceX they don’t consider anything lost (and no one should consider SpaceX a loser in any case, looking at its history). In fact, Musk’s company has just put dates and figures on its lunar ambitions. According to an update on their websiteSpaceX plans to begin its cargo missions to the surface of the Moon in 2028, the same year as Impulse, but with a price that breaks all schemes: 100 million dollars per metric ton, or what is the same, 100,000 dollars per kilogram. To put this in perspective, Astrobotic, another competitor in the sector, sells its flights to the Moon at a price of 1.2 million dollars per kilogram. The difference is abysmal and demonstrates SpaceX’s aggressive pricing strategy, which is only possible with the total reuse of its Starship system. We are, therefore, faced with two opposing philosophies. A bet on the safe side and a bet on breaking the market. Led by two people who worked together for years. Image | Impulse Space In Xataka | The United States has a plan B to win the lunar race against China: change Elon Musk’s ship for Jeff Bezos’s

SpaceX has said goodbye to Starship v2 with an unprecedented maneuver

by

The largest rocket in the world has once again taken to the skies, and it has done so to say goodbye. He Starship’s eleventh test flight It has been the finishing touch to a season with lights and shadows. SpaceX has exhausted the Starship V2 prototypes and has used for the last time the launch pad from which the 11 flights have taken off. One last trick to say goodbye to the Super Heavy we know Once again, the 33 Raptor engines of the Super Heavy booster started without problems to launch the Starship into space. For the second time, the prototype on the platform was the Super Heavy Booster 15, which had already taken off and landed successfully on flight 8. The first big news about Flight 11 arrived after the separation of stages. The booster tested a new engine ignition sequence to stop when returning from space, the same one that the Super Heavy V3 will use. First he turned on 12 engines to brake suddenly (there had to be 13, but one took a while to start). He then turned off all but five to fine-tune his trajectory. Previously, the Super Heavy fired three engines instead of five during this braking phase. As SpaceX propulsion engineer Jake Berkowitz explained, during the flight broadcastusing five motors “adds an additional layer of redundancy for spontaneous motor shutdowns.” But what was noticed was not the redundancy, but the additional smoothness in the maneuver. SpaceX did not intend to recover Booster 15 with the tower’s arms, but rather to virtually rehearse the maneuver over the Gulf of Mexico. The rehearsal went smoothly, but the SpaceX broadcast from the point of view of the rocket did not do justice to the precision of the maneuver. Fortunately, NASASpaceflight cameras captured the moment from shore. With the NASASpaceflight video We witness the last seconds in flight of the Super Heavy V2. And to the last trick that SpaceX has pulled out of its hat. The imposing 70-meter-high steel cylinder, equivalent to a 24-story building, seems to stop time over the ocean. The braking is so smooth and vertical that it gives the sensation of standing still, magically floating dozens of meters above the water. Then it plummets and self-detonates. The deployment of satellites with Starship is already looking much better As for the ship, it completed one of its most roundabout flights in a long time. After finishing his eight minute climbturned off its six engines and began a suborbital trajectory toward the Indian Ocean. He later opened a slot in his cargo bay and slowly deployed but this time gentlyeight Starlink satellite simulators. Starship 38 has shown that SpaceX is very close to being able to deploy cargo with its mega rocket. Starting in spring (in the time of Elon Musk), Starship will begin launching new generation Starlink satellites, much larger than the current ones and with the capacity to offer gigabit bandwidth to customers. Another critical maneuver that they already have under control is deorbiting. For the third time in its history, Starship restarted a Raptor engine in the vacuum of space, which in the future will allow it to return from space to land or make orbital corrections on missions to the Moon and Mars. The final phase of the mission was, perhaps, the most risky. SpaceX had purposely removed even more tile patches from the heat shield with the goal of increasing stress on the vehicle and collecting data on its tolerance limits for the extreme heat of reentry. Despite the mistreatment, the ship survived the inferno surrounded by plasma while the cameras on board once again gave us spectacular views. Just before the end, the ship executed another novel maneuver: a “dynamic turn” to simulate the trajectory that future Starships will take to align with the tower at Starbase. Like the booster, the ship will attempt to be trapped by the mechanical arms of one of the two launch towers. Finally, 66 minutes into the flight, Ship 38 made its iconic turn prior to splashdown, started its engines for a final braking and fell into the water in one piece. Of course, several tiles of the heat shield fell off along the way. The end of an era and a presumed wait for the next Starship In addition to being successful, Flight 11 has been a turning point for several reasons. First, it closes the chapter on Block 2 vehicles, a generation that has had a turbulent history with the failures of Flights 7, 8 and 9 (as well as a large explosion on the ground), but which redeemed itself with the successes of Flights 10 and 11. On the other hand, it is the last mission from Platform 1 in its current configuration. This ramp, which suffered catastrophic damage on the first flight and was rebuilt with a massive flame deflector that shoots water jets, will be completely renovated to accommodate the third generation rockets. However, the next launches will be made from Platform 2, which is about to go live. With V2 retired, attention now turns to V3, the version that will be the first to reach Earth orbit and begin deploying next-generation Starlink satellites. Despite the advanced status of both the V3 prototypes and the second tower, Starship is not expected to fly again for a few months. This new iteration and its engines still have tests to complete before taking flight. Starship 3 will be more powerful, taller (about 124 meters, adding the two stages) and will be better finished. The Super Heavy will have the integrated hot separation ring and a new design in the aerodynamic grilles, which become three. It will debut Raptor 3 engines and fuel lines so large they resemble a Falcon 9. The Starship will include adapters that will allow it to transfer fuel in orbit (an essential maneuver for lunar missions). Although no one is confident that NASA’s Artemis 3 lunar landing mission can occur in 2027, the … Read more

Spacex has bought the spectrum that Echostar failed to use: the new space race is no longer to get to space, it is to control it

by

Spacex He has bought the Telecommunications spectrum of Echostar for 17,000 million dollars. Thus eliminates its main competitor in direct mobile satellite services. Why is it important. This operation Turn Spacex the great dominator of satellite mobile connectivity. It will no longer compete with land operators, but will control the entire value chain, from the rocket to the phone. Spacex has paid 8.5 billion in cash and another 8.5 billion in shares for the AWS-4 and H-Block spectrum licenses of Echostar. In addition, it will cover additional 2 billion in interest payments of the Echostar debt until November 2027. The movement eliminates the Direct-To-Cell constellation project of Echostar, which had been the main Starlink competitor in satellite mobile services. Charlie Ergen, founder of Echostar, has sold all his spectrum after decades to accumulate it without developing his own network. In Xataka Satellites are becoming some of the luminous objects in heaven. It is a serious problem In detail. Spacex will use these frequencies to Develop your next generation constellation Starlink Direct-to-Cell, which promises “a remarkable change in performance” with respect to the current one. Technology works with existing LTE phones without the need for hardware, firmware or special applications. It currently operates with more than 600 satellites offering 4G coverage to more than six million users on five continents. The backdrop. This purchase arrives just before the Apple event, where the new ones will be presented iPhone 17. There are those who speculate that Apple could reconsider their association with GlobalStar after seeing how Spacex eliminates competitors buying the entire spectrum available. Between the lines. Spacex does not move by investment return to use, but by strategic domain. As you have already done in satellite connectivity by lowering prices aggressively to stop Amazon Kuiper, now it seeks to completely control the satellite mobile market before mature. Yes, but. The new AWS-4 and H-Block frequencies are not compatible with current phones. Spacex will need manufacturers as Apple to include them in future devices. If Apple does not cooperate, Musk has already threatened to create his own “Starlink” phone. {“Videid”: “X8ywtec”, “Autoplay”: False, “Title”: “First video call with Starlink Direct To Cell”, “Tag”: “”, “Duration”: “22”} And now what? This operation leaves competitors as AST Spacemobile in a specially complicated position. AST needs to raise 400 million in the next few weeks just to stay afloat, Spacex already dominates in launch speed and satellite development. The transaction also solves the FCC investigations on Echostar. With this sale and the previous one of another AT&T spectrum package for 23,000 million, Echostar seems to go to a gradual settlement of its operations. Outstanding image | Spacex In Xataka | Spacex has just published unpublished images of the “Rostized” Starship. A unique perspective of his shock after the toughest reentry (Function () {Window._js_modules = Window._js_modules || {}; var headelement = document.getelegsbytagname (‘head’) (0); if (_js_modules.instagram) {var instagramscript = Document.Createlement (‘script’); }}) (); – The news Spacex has bought the spectrum that Echostar failed to use: the new space race is no longer to get to space, it is to control it It was originally posted in Xataka by Javier Lacort .

Spacex has just published unpublished images of the “Rostized” Starship. A unique perspective of his shock after the toughest reentry

by

Spacex shared new images of the Starship In its tenth test flight, where he managed to complete the reentry and controlled ameter In the ocean despite visible damage in the vehicle. The material spread by Spacex shows the ship at a key moment: the moment of its spareness in the Indian Ocean, dyed of an orange tone after surviving a specially demanding reentry. A key test. The tenth test flight departed on August 26 from Starbase, in Texas, with an impeccable takeoff thanks to the 33 super heavy engines. The separation of stages was also successful and the propeller managed to merit in the ocean, fulfilling its role before the starship continued its trip to space. The milestones in space. Once separated from the propeller, the Starship carried out a complete combustion that placed it in its suborbital trajectory and allowed to validate several key tests. Among them, the deployment of eight Starlink satellite simulators and the second redempted in the history of a Raptor engine in space, two milestones that Spacex considers essential for the development of future missions. Click to see the original publication in x The challenge of the reentry. The reentry was the most critical point of the mission. Spacex had already chained several failed attempts. This, in a way, had questioned the capacity of the vehicle to survive this phase. This time, the ship faced extreme conditions with part of its incomplete thermal shield and the flaps subjected to a deliberate effort. Even with visible damage in the rear skirt, the Starship managed to maintain control and move towards its destination. Spacex’s message. Moments ago, Spacex published a message in which he summed up the scope of what was achieved: “Starship exceeded the reentry with missing tiles intentionally, she completed maneuvers to force her flaps, suffered visible damage in the rear skirt and flaps, and still executed a turn and a landing ignition.” Despite these conditions, the ship managed to preserve sufficient maneuverability to go accurately towards its field of shock in the Indian. The image released next to the statement reinforces that idea. The starship, imposing on the launch platform with all its intact thermal tiles, now appears with a very different appearance: blackened, with a coppery tone that makes it seem almost “roasted” after passing through the atmosphere. Spacex has not explained the exact reason for this change, although on the Internet they have not taken to appear theories. A millimeter closure. The mission culminated with the Starship gently threading in the Indian Ocean, approximately three meters from the planned area. For Spacex, the value of the flight is not that the ship can be reused, but in what has been learned during the test. Each data collected in extreme conditions approaches the company to its goal of developing the first large -sized launcher fully reusable. In Xataka | The “Wow!” Signal signal It was even more powerful than astronomers calculated: half a century later, the mystery is complicated

Starship ended as an orange after flight 10. Spacex has not explained the reason, but the Internet has its theories

by

Starship’s tenth test has been a resounding success. The highest rocket in history took up a lot of expectation after three failed pitches, but this time one by one fulfilled the objectives of the mission. What surprised many was the orange color that the ship had when it merited in the Indian Ocean, a tone that we had not seen so far. Extreme suffering. After displaying Starlink Satellites simulators for the first time, Starship 37 lit an engine in the exorbitant space. It was then that Spacex tested the structure of the ship. An especially hard reentry angle, a series of aggressive maneuvers with the ailerons and a deliberately incomplete thermal shield made the ship suffer, but never disintegrated or stop maneuvering. Unlike flights 7, 8 and 9, which did not have a controlled reentry, flight 10 has allowed Spacex to collect an incalculable amount of data to improve Starship’s most critical and green part: Your reusable thermal shield. And it is precisely the thermal shield in the rocket belly that seems to have acquired an orange color after 26,000 km/ha 12 km/h. But how did that rusty tone occur if the thermal tiles are ceramic? A buoy and a mystery. Although Spacex has not yet pronounced on the subject, the images of the Ship 37 issued live from a buoy in the Indian Ocean called the attention of fans and aerospace experts equally. While the ship’s belly seems to have churruscado, the main theories do not point to The tiles fall Or they were burned, but for something deposited on them. The location of the experimental metal tiles at the vertex of the orange cone A refrigerant leak. The hypothesis that has gained the most force is the one that points to one of the key experiments of this flight: a metal tile with active cooling In the upper part of the thermal shield. Unlike the usual ceramic tiles, which are passive insulators, this experimental piece leaves circular cohete refrigerant to dissipate heat. The theory, supported by Analysts like Scott Manleysuggests that the tile with active cooling could have suffered a leak. The refrigerant fluid (perhaps methane of the rocket itself), by escaping and coming into contact with the incandescent plasma of the reentry, would have been burned and deposited throughout the fuselage, creating that characteristic feature of orange -shaped cone color that is appreciated in the images. In fact, the location of the experimental tile It coincides perfectly with the vertex of the orange area. Other possibilities. A non -exclusive theory is that experimental metal tiles (there were others on board without active refrigeration) They will simply oxidize Due to the extreme temperatures of the reentry, leaving that trail of oxide color. What seems clear is that we are not seeing the result of a ablation. Starship silica tiles are reusable insulating, not ablative shields that disintegrate by design. If the tiles had worn up to the point of exposing the ablative material underneath, we would be talking about a catastrophic failure of the system. A torture laboratory. This visual result, far from being a failure, is the direct consequence of Spacex experiments for this flight. The Starship 37 has gone through an authentic test bench for the thermal shield, which Elon Musk himself has pointed out as The main technological stumbling block of the program. On this flight, Spacex withdrew tens of tiles in key areas to see how the lower structure endured. At the same time, he added metal tiles and with active cooling to look for more resistant alternatives in areas of maximum thermal stress. And softened the edges of some tiles to mitigate the hot points observed in previous flights. In summary, the orange color of the Starship does not seem to be a sign of a catastrophic failure, but the visible footprint of an experiment taken to the limit. Images | Spacex In Xataka | A astrophysicist calls Elon Musk: “Even in a nuclear apocalypse, the earth would be a paradise compared to Mars”

It was hired by Spacex at age 14. Now, with 16, the young genius has turned his back on Elon Musk to go to Wall Street

by

His history turned the world. Kairan Quazi graduated at the University of Santa Clara with 14 years. Almost immediately, He was signed as Spacex software engineer. Now, the young prodigy has abandoned Elon Musk’s space company to work in finance. The youngest employee of Spacex. He was not a fellow they sent for cafes. For two years, Kairan was one of Starlink engineers, the Spacex satellite Internet network. His work was critical: he designed the software that determines where the satellites point their beams to offer a stable connection. “I had a very broad field of work and a lot of responsibility, especially for a junior engineer,” Count the boy to Business Insider. Spacex expected him to lead projects from beginning to end: develop ideas, present them to other engineers and address, implement them and supervise the deployments. With 16 years, I needed a change. After two years at the aerospace avant -garde, Kairan Quazi felt prepared to “assume new challenges and expand their skills” in a different high performance environment. The young prodigy received offers from the most leading artificial intelligence laboratories, but it was a proposal of Citadel Securities, a trading giant, which finally convinced him to leave Spacex. Now work as quant unaveloper developing financial models. Quants, the elite of programming. The decision to change rockets for financial algorithms is not accidental. For the best mathematicians and software engineers, only artificial intelligence competes in attractiveness with the world of finance specialized in quantitative analysis. With millionaire wages, the Quants sector combines the complexity and intellectual challenge of other sectors with a much faster rhythm, measurable in days, not in months as in many research environments. In algorithmic trading, an idea is tested, implemented and gives results (for better or worse) in a matter of hours. For the rest, a teenager. Kairan valued that Citadel Securities did not take into account his age or his years of experience when offering opportunities. But sometimes he has to remember that he is a teenager. During his stage in Spacex, his mother had to take him to work every day because, with 14 years, he had no driving license. The episode in which LinkedIn erased the account for not having fulfilled the minimum age of 16. From Silicon Valley to Wall Street. Kairan was born in the San Francisco Bay area and He began his university studies with nine years. After his early entry into the working world, he now moves to Manhattan, where he will live 10 minutes walk from the office. This Bangladesí-American, fond of reading, video games, escalation and piano, lands in a city that already knows for its family roots in Queens. Wall Street will mark a new chapter for a young man who seems to have no limits. Image | Scu In Xataka | What Spacex has achieved with Starship is incredible. The only problem is that he has done it at the expense of the health of his employees

Log In

Forgot password?

Forgot password?

Enter your account data and we will send you a link to reset your password.

Your password reset link appears to be invalid or expired.

Log in

Privacy Policy

Add to Collection

No Collections

Here you'll find all collections you've created before.