space

SpaceX is not only breaking records in space

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The Bloomberg Millionaires Index has moved its figures on great fortunes with a fact that is difficult to ignore: Elon Musk has become the first millionaire to exceed $600,000 million in estimated assets. According to he Bloomberg Billionaires IndexMusk’s fortune now amounts to about $638 billion, an unprecedented figure that places him in a completely new league within technological capitalism. The leap has been neither minor nor gradual. In a few weeks, the estimate of his assets has skyrocketed by more than $205 billion, driven, above all, by the expectation generated around the SpaceX IPO. SpaceX: Musk’s new gem. With a Tesla that seeks its place to define itself between an automotive or robotics company, the main engine of Musk’s fortune has moved towards the aerospace industry. SpaceX, majority controlled by Musk, has been one of the most valuable private companies in the world for years. The information about a possible IPO have revived investor appetite and valuations have skyrocketed internal of the company taking it up to 800,000 million dollars. With this, the valuation of Musk’s fortune has also increased. Bloomberg estimates that the company is already worth several hundred billion dollars, and Musk owns around 42% of capital, in addition to reinforced voting rights. Tesla, xAI and the rest of the Musk ecosystem. Although SpaceX makes headlines, It is not the only asset that supports Musk’s fortune. Tesla continues to be the other major pillar and, despite moving in a more complex context for the electric car and increasing pressure from Chinese manufacturers, the company maintains a stock market capitalization that is progressively recovering from reputational disaster What did the participation of its CEO in the cuts that DOGE carried out at the beginning of the year. Added to this are other less visible but relevant participations: xAI, the artificial intelligence company promoted by Musk, is consolidating itself as a business ecosystem highly concentrated in its figure, which amplifies any market movement, both up and down. Fortunes are not exact figures, but estimates. It is worth, however, putting the numbers about Musk’s fortune in context. Great fortunes are not balances in a checking account, but estimates based on the combined value of each millionaire’s business interests, properties and financial assets. And those estimates They vary depending on who calculates them and with what methodology. This is where the differences between indices appear. While the Bloomberg Index locates Musk’s fortune around $638 billion, Forbes offers a figure substantially lower: about 509,000 million. The gap is explained by several factors, including how SpaceX is valued. In other words, neither figure is “correct” in absolute terms. Both are reasonable approximations to an extremely complex heritage, but they serve to determine trends and a comparative value between great fortunes. One step closer to the first billion. Beyond the specific figure, this new record reinforces an idea that has been circulating for some time: Elon Musk is one of the clearest candidates to become the first billionaire in historythat is, being the first person to accumulate a fortune of one million million dollars. Yes SpaceX completes its IPO With the valuations that are being used today and Tesla manages to sustain its weight in the market, the jump to the billion is no longer an extravagant hypothesis and has become a plausible scenario in the near future. Musk’s milestone not only redefines the ranking of the richest in the world. It also underlines the extent to which economic concentration is occurring around a single person or company. In Xataka | Carnegie built libraries, Gates sold them on CD-ROM, Musk locked them in an AI: the history of knowledge control Image | SpaceXFlickr (Gage Skidmore)

The plan has always been to destroy the International Space Station in 2030. Someone thinks we can do something else

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The International Space Station this that falls. It has been orbiting the Earth since 1998 and was completed in 2011. The plan was to retire it in 2024, but the accounts did not work out and, in 2021, the NASA administrator set a definitive date: 2030. The question is whether it will last that long because a few months ago we already said that members of NASA expressed concern about the accumulation of problems technicians who were accelerating the decline of a seriously aging facility. air leaks, cracks in different modulesabsence of spare parts for critical systems and lack of budget to propose a solution It would be assumed that the Different agencies have been putting patches on for years. NASA has already commissioned SpaceX the development of a ship that would tow it to the space graveyard of the Pacific, but… is there no other solution for the 450-ton, $150 billion station? The answer is yes. At least, that’s what Greg Vialle, founder of a startup called Lunexus Space that is committed to recycling the International Space Station, thinks. Turning the International Space Station into a mine In the middle of last year, NASA had clear that he Point Nemoa remote location in the Pacific, 2,700 kilometers from the nearest pile of dirt, would be the station’s cemetery. There was only one thing I could avoid the dismantling: that ROSCOSMOS, the Russian space agency, refused to abandon the ship. Russia soon changed its mind by commenting that its cosmonauts were passing more time repairing equipment than conducting experiments. Come on, no matter how much they wanted to “annoy” NASA at a geopolitically unstable point, it didn’t work out for them. Everything was aimed at the disappearance of the current ISS, but there are those who have something to say. Lunexus Space is a startup focused on the development of industrial infrastructure in low orbit that reuse structures and space junk to facilitate the construction of goods directly in the lower atmosphere. The goal is to develop a kind of circular economy in low orbit by taking advantage of the tons of material already in space, eliminating the need to re-launch them from Earth. In Space Newsthe CEO of the company has developed an article in which he explains his plan to “avoid wasteful expenses.” Vialle affirms that the ISS has 430 tons of high-quality aluminum, titanium and other materials valuable for future space missions. He estimates the value of the material at $1.5 billion, which would be lost to the ocean floor if NASA’s plan goes ahead. And it also points out the almost 1 billion that NASA will spend on the vehicle that tows the station to its resting point. “It is a fiscally irresponsible plan that loses a strategic resource and a golden opportunity.” What he proposes is “a common sense alternative”: converting old infrastructure into raw materials for new construction. Their calculations highlight that launching a kilogram of material into space costs $3,500, but if they take materials from the ISS, the costs would drop entirely. And, faced with the 1,000 million dollars of the plan to sink it, Vialle suggests that Its recycling process could be carried out for about 300 million dollars to which an equivalent government loan would have to be added to launch the necessary infrastructure, appealing to significant savings for taxpayers while preserving valuable resources. American leadership, of course “How can we wait prospect, mine, refine and transport in deep space if we cannot extract the many tons of cataloged and space-grade materials that are already beginning to manage low Earth orbit?” Vialle appeals. But of course, there is a B side to this plan: Strengthen America’s Space Leadership. By receiving the ISS, the CEO believes that the seeds of “a new industry in space led by the United States will be sown, ensuring our economic and strategic leadership over competitors like China.” China too He has been planning his own station for years. And he compares the move to American manufacturing policy to prepare for the Second World War, japanese strategy in the 1970s that established the country as a technological miracle or Taiwan’s position with TSMC and chip manufacturing. His idea is for the United States to invest in resource management technologies in space, something that is taking its first steps and that, if it reaches a solid program, will make “the nation dominate the future of commerce and defense in orbit.” It is evident that Vialle has known what sticks to play in a moment as sensitive as the current one and, although in his letter he urges Congress to influence NASA’s decision to ‘deorbit’ the International Space Station, the space agency has already detailed that, after a session to evaluate the possibility of reusing the main components of the station, they did not receive any proposals of interest from the industry. On the other hand, the European Space Agency already pointed out that recycling in orbit was “a real challenge” and it was not clear whether the resources used to capture and process waste in space would be profitable. Either way, time is of the essence. We will see what happens with the ‘Recycle the ISS’ movement, but there are four years left and, as more and more voices point out, something must be decided because the installation is on its last legs. In Xataka | Decathlon has just made its way beyond sport: it will reach space with a prototype spacesuit for the ESA

Google is serious about putting data centers in space. Elon Musk and Jeff Bezos rub hands

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While there are municipalities debating whether to let big technology companies install data centers in their domainsGoogle wants a strike further: taking the data centers to space. Google. The company revealed its intentions a few weeks ago and your Suncatcher project wants to install two prototype satellites before 2027. Curiously, Elon Musk and Jeff Bezos are more than delighted with the idea of ​​their rival. Suncatcher Project. Push the capabilities of the artificial intelligence requires that we train it and, for this, they are necessary huge data centers with spectacular computing power. The problem is that the energy needs of these facilities They are astronomical, becoming resource sinksmaking oil companies set aside their renewable energy plans and even raising the opening of “private” nuclear power plants. Suncatcher couldn’t have a more appropriate name. In space, without the influence of the atmosphere, solar panels They capture the light spectrum in a different way, enough to feed those data centers that seem insatiable, and what Google proposes is to build constellations of dozens or hundreds of satellites that orbit in formation at about 650 kilometers high. Each of them would be armed with Trillium TPU (processors specifically designed for AI calculations) and would be connected to each other via laser optical links. Pichai puts the topic anywhere. Although 2027 is the key date, it is evident that Google is very interested in airing its plans because it is a sign of both technological power and an invitation for interested entities to invest in the process – and a way to continue inflating everything around AI-. And the person who is practicing this speech the most is the company’s CEO himself: Sundar Pichai. Since we learned of Google’s plans, Pichai has spoken of the topic in every interview he has given. It does not tell anything new beyond that hope of having TPUs in space in 2027 and the ambition that in a decade extraterrestrial data centers will be the norm. Musk and Bezos: competition, but allies. And if Google is interested in selling its narrative, those who are also interested are two of its most direct competitors: Elon Musk and Jeff Bezos. Both Musk with several of his companies and Bezos with Amazon Web Services are in the race for data centers and artificial intelligence. They have some of the largest on the planet, but they also have something that the rest of the competitors don’t: ability to launch things into space. Musk with SpaceX and Bezos with Blue Origin have the tools to put satellites into orbit, charging for each kilo they launch into space. And it is there, the more credible it seems that the future of computing is in low Earth orbit, the more economic and political sense they will make. SpaceX as Blue Origin. Both are Google’s competition, but also the option for Google to achieve its objective. And, ultimately, we keep seeing rival companies renting their services from each other. Data center fever in space. The truth is that, at first, it sounds like a crazy plan to build these extraterrestrial data centers, but from the most pragmatic point of view (removing logistics and the money that both development and each launch will cost from the equation), it is a plan that makes sense. In space, a panel can perform up to eight times more than on the Earth’s surface, in addition to generating electricity continuously by not depending on day/night cycles. It is something that would eliminate the need for huge batteries, but also for complex water-based cooling systems. And, as we said, Google is not alone in this. Currently, there is a fever for space data centers with big technology companies in the spotlight: Considerable challenges. Now, Google itself comment It will not be easy to carry out this strategy. On the one hand, the costs. The company claims that prices may fall several thousand dollars per kilo to just $200/kg by mid-2030 if the industry consolidates. They note that, in that case, the price of launching and operating a space data center could be comparable to the energy costs for an equivalent terrestrial data center. Another difficulty will be maintaining a close orbit between the satellites. They would have to be within 100-200 meters of each other for optical links to be viable. And most importantly: radiation tolerance by the TPUs. Google has been experimenting with this for years, but they must test the effects of radiation on sensitive components such as the HBM memory. Surely astronomers They will be delighted with this strategysame as with starlink. Image | THAT In Xataka | We are launching more things into space than ever before. And the next problem is already on the table: how to pollute less

We have been talking theoretically about data centers in space for months. A company already has a plan to set it up in 2027

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The Californian startup Aetherflux has announced which will launch its first data center satellite in the first quarter of 2027. It is the initial node of a constellation that the company has named “Galactic Brain”, designed to offer in-orbit computing capacity powered by continuous solar energy. The underlying promise. Aetherflux presents an alternative to the years of construction that terrestrial data centers require. According to Baiju Bhatt, company founder and co-founder of the financial firm Robinhood, “the race toward artificial general intelligence is fundamentally a race for computing power and, by extension, energy.” The company is committed to placing sunlight next to silicon and completely bypassing the electrical grid. How the project works. The Galactic Brain satellites will operate in low Earth orbit, taking advantage of solar radiation 24 hours a day, something impossible on land. Advanced thermal systems would eliminate the limitations faced by terrestrial data centers, which require large amounts of water and electricity for cooling. In addition, the constellation fits within Aetherflux’s initial plans: transmitting energy from space to Earth using infrared lasers. The competition is already underway. Aetherflux is not alone in this bet. Google presented in November your Suncatcher projecta plan to launch AI chips into space on solar-powered satellites. Jeff Bezos too expressed his optimism on large data centers operating in space in the next decade or two, a goal that Blue Origin has been working on for more than a year. SpaceX also works in use Starlink satellites for computing loads of AI. Musk himself wrote in The real obstacles. Although launch costs have decreased considerably, they remain prohibitive. According to recent estimateslaunching a kilogram with SpaceX’s Falcon Heavy costs around $1,400. Google calculate that if these costs drop to about $200 per kilogram by 2030, as projected, the expense of establishing and operating space data centers would be comparable to that of terrestrial facilities. In addition, the chips will have to withstand more intense radiation and avoid collisions in an increasingly congested orbit. The urgency. Big tech is colliding with physical limits on Earth. From 2023, dozens of data center projects have been blocked or delayed in the United States due to local opposition over electricity consumption, water use and associated pollution. According to the consulting firm CBRElimitations in electricity generation have become the main inhibitor of data center growth around the world. The Aetherflux Calendar. The company, founded in 2024 and which has raised $60 million in financing, plans to first demonstrate the feasibility of transmitting space energy through a satellite that will launch in 2026. If all goes according to plan, the first Galactic Brain node will arrive in 2027. The company anticipates launching about 30 satellites at a time on a SpaceX Falcon 9 or equivalent, although if Starship becomes an option, they could orbit more than 100 data center satellites in a single launch. The long term strategy. Aetherflux hasn’t revealed pricing yet, but promise Multi-gigabit bandwidth with near-constant uptime. Their approach is to continually release new hardware and quickly integrate the latest architectures. Older systems would run lower priority tasks until the life of the high-end GPUs were exhausted, which under high utilization and radiation might not last more than a few years. Cover image | İsmail Enes Ayhan and NASA In Xataka | OpenAI launches GPT-5.2 weeks after GPT-5.1: a maneuver that aims to cut ground on Google’s Gemini 3

Faced with the threat of an “orbital Pearl Harbor”, Europe has made the same decision as the US: shield space

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The race to militarize space has accelerated to an extent unprecedented since the end of the Cold War. The reasons are several, but the main one is driven by the combination of explicit russian threatscovert sabotage and an international architecture incapable of containing the emergence of atomic weapons out of the atmosphere. The last one to join: Europe. The war in orbit. Moscow not only has reactivated its classic nuclear discourse, but has opened a second front in low Earth orbit through the development of anti-satellite systems equipped with nuclear warheads that openly violate the Outer Space Treaty. In this context, European and North American experts match in which the Kremlin is lowering the threshold for the use of tactical nuclear weapons both on Earth like in spacewhile experimenting with platforms capable of camouflaging orbital bombs designed to disable satellites essential for the economy, defense and communication. Thus, the very idea of ​​a “Space Pearl Harbor” (a nuclear explosion that destroyed thousands of satellites, blinded entire continents and turned low orbit into a radioactive dump for generations) has forced Europe to abandon the romantic vision of an exclusively civil space and enter a new strategic reality which combines deterrence, diplomacy and operational preparedness. The bet of the old continent. This turn has crystallized in a historic decision: For the first time, European Space Agency countries have approved funding a program designed explicitly for military functions. He ERS projectconceived as a “system of systems” equipped with surveillance capabilities, secure navigation, encrypted communications and Earth observation, marks Europe’s entry into the club of actors who recognize that their future security depends both on what happens on the ground and what happens hundreds of kilometers above it. The approved financing (1.2 billion euros with more to come) comes accompanied by an unprecedented political mandate that redefines the concept of “peaceful purposes” at a time when China multiplies its space capabilities and Russia turns orbit into a space hybrid pressure. The magnitude of the support, bordering 100% of what was requestedreflects an internal consensus: without its own capabilities, Europe would be a vulnerable spectator in a conflict that would be decided by the speed and resilience of its satellite constellations. The French and German response. On this new board, France and Germany have assumed a central role both for its industrial capacity and for its newly adopted conviction that the wars of the future will begin (or be decided) in space. Paris has invested 10 billion euros in its new Space Command, oriented to military operations in orbit, to shield satellites against kinetic attacks and to promote an interoperable architecture with NATO. Berlin, for its part, has announced an investment of 35 billion until 2030 to reinforce its own Space Command, develop guardian satellites and equip itself with advanced early warning systems. Both countries have publicly assumed that orbital infrastructure is so critical such as energy or digitaland that any Russian aggression could paralyze not only defense, but European civil society as a whole. National security is no longer decided solely on the eastern land border, but in a three-dimensional environment where the loss of a single satellite node can destabilize entire sectors. Nuclear beyond the atmosphere. Analysts agree that the most feared scenario is not a specific attack against specific satellites, but the detonation of a nuclear charge in orbitcapable of generating devastating electromagnetic pulses and cascading space junk that would render low orbit useless for decades. Historical precedents, such as try Starfish Prime that destroyed a third of existing satellites in the 1960s, serve as a warning of what it would mean to repeat a similar experiment today, with more than 10,000 active satellites. Such an explosion would kill astronauts, destroy global navigation infrastructure, fossilize the digital economy and cause a domino effect that could move the war from space to Earth. Although some experts hold While Moscow would only resort to such action in a scenario of terminal collapse, the mere existence of these capabilities forces Europe to prepare for a type of conflict that would break the traditional limits of deterrence. Political pressure and a new order. Fear of an orbital conflict has reactivated debates on nuclear disarmamentboth in the United States and in Europe, where legislators are promoting initiatives to revitalize multilateral negotiations that have been stagnant for decades. At the same time, ESA has achieved a record budget (22.1 billion euros) that not only finances its transition towards space security, but also promotes scientific and commercial programs, such as reusable rockets, Martian exploration or new astrobiological missions. This growth, supported by Germany, France, Italy and Spain, reflects the strategic convergence between defense, research and technological sovereignty. In the new scenario, Europe seeks not to be a secondary actor in the face of spatial duopolization between the United States and China, but to develop real autonomy that reduces dependence on private platforms like starlink or American systems such as the space interceptors of the Golden Dome. Militarize space. If you also want, the intersection between russian threatsAmerican technological advances and the European strategic awakening marks the beginning of a stage in which the Earth’s orbit is consolidated as the new global scenario military competition. What was once a scientific and commercial domain has become a space where the resilience of entire societies is decided. He ERS projectthe expansion of national space commands and the growing funding of dual capabilities make up a defense ecosystem that seeks to avoid a conflict that no one wants to imagine. And in that scenario, Europe seems to have understood that the only way to deter orbital escalation is to demonstrate that it has the same means to resist it, respond to it and recover. Image | RawPixelESA/Mlabspace In Xataka | The US wants to build an unprecedented anti-missile shield called “Golden Dome.” And SpaceX has the ideal technology In Xataka | Space solar never worked. A military escalation in orbit is making it a reality

We have left Moss out for nine months in space at the mercy of vacuum and radiation. He’s back alive and breaking records

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Life is much more tenacious than we usually think, even when we take it out of its cradle and expose it to the most hostile environment we know: the emptiness of the outer space. And to carry out this test, a team of scientists has decided to take a moss and expose it to conditions outside of Earth, giving a result that opens a path for us on how to create new ecosystems on other planets. The protagonist of this story is Physcomitrium patensor better known as primitive moss. And there were a series of Japanese researchers those who wanted to check What would happen if this little primitive moss was left outside the International Space Station. The logical a priori thing would have been that he would have died instantly, since he did not have oxygen, the environment was really aggressive, with a lot of direct radiation as he did not have the protection of our ozone layer and logically he was not in his natural habitat. But the reality is that he has managed to endure the absolute emptiness and the cosmic radiation for 283 days. But not only has it survived these conditions, but upon returning to Earth it has been planted and germinated. Without a doubt a great surprise in the face of the resistance that these organisms have. A round trip. The research, led by biologist Tomomichi Fujita of Hokkaidō University and published in iScience, started from a premise that seemed like science fiction: can a primitive land plant withstand prolonged exposure to cosmic elements without protection? To find out, in March 2022 they launched hundreds of samples aboard the ship Cygnus NG-17. Once on the ISS, the astronauts attached these samples to the outside of the station, orbiting at about 400 km altitude from the Earth’s surface. There they stayed for nine months, exposed to constant cycles of light and shadow, extreme cold, and relentless ultraviolet radiation. In January 2023, the samples returned in a SpaceX capsule (mission CRS-16) and when analyzed in the laboratory, the results perplexed the researchers. More than 80% of the spores had survived and were able to germinate. Not everything is the same. Just as two humans may not be equally resistant, something similar happens with mosses. In this research, we tried to verify the resistance of three types of fabric, but the winner was undoubtedly the sporophytewas the hardest fabric. Something that was already suspected, but the litmus test that this was was missing. In terrestrial laboratories, stress is usually tested separately. That is, in a season an organism is exposed to heat, or cold, or high radiation. But in this case everything happens at the same time, and that is why it was expected that his survival would be null with this combination of factors. But the reality is that the spores protected within the sporangium endured. And although the scientists noted a degradation of one type of chlorophyll due to visible light, the structural and genetic integrity of the plant remained intact enough to be “resurrected” upon returning home. Its importance. Growing a moss on the surface of the ISS seems insignificant and a silly waste of money. But the reality is that this finding has two very important readings. The first looks towards the stars and the terraforming process. It must be taken into account that mosses were the first plants to colonize land on our planet 500 million years ago. It can be said that they are natural pioneers thanks to the fact that they can settle on bare stones and then when they die, they generate soil where more complex plants later emerge. In this way, if they can survive space travel and withstand extreme conditions, they could theoretically be the biological vanguard. in lunar or martian bases to help modify its atmosphere and ecosystem. Something more urgent. Right now, our goal has to be to create crops that are more resistant to the extreme weather conditions we face on our planet. And the solution may lie in these spores and their genetics. Understanding the mechanism that gives them this great resistance is vital so that we can modify seeds of other crops with the aim of conferring the same resistance. A vital step to face everything that may be yet to come to our planet. Images | Mike Frandson POT In Xataka | Fungal spores and other microorganisms are candidates for surviving on the surface of Mars, according to NASA

PLD Space already has a complete Miura 5 rocket ready. to destroy it

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The renders are over. PLD Space has once again demonstrated that it is advancing at a devilish pace by publishing the first photos of the entire Miura 5 rocket. These images are history of the Spanish space industry. With you, the Miura 5. The first complete unit of the Miura 5 is not made to fly, but to suffer. Named QM1 (Qualification Model 1), has been almost completely assembled for integration testing of all subsystems before the final flight model takes off into Earth orbit next year. This is the first orbital launcher from a Spanish company, the same one that successfully launched the Miura 1 suborbital rocket from Huelva in October 2023. It was that milestone that has allowed PLD Space to complete the development of a rocket in record time. No other European company has done it so quickly. Why it is important. At a time when preserving sovereign access to space It has become a geopolitical issueEurope needs to have a strong aerospace industry and cheaper and more versatile rockets than the Ariane 6 and Vega C developed by ESA. The Miura 5 leads the European New Space thanks to its TEPREL-C biokerosene and liquid oxygen engines, more powerful than its competitors and developed internally by PLD Space in its Elche factory. The rocket measures 35.7 meters high, has two stages (the first with five engines, and the second with an engine adapted to the vacuum of space). The next steps. The first stage of the QM1 will perform a full propellant loading test known as “wet dress rehearsal.” They will fill the tanks, pressurize the vehicle as they would before a flight, and replicate all the structural and thermal loads prior to launch, without actually turning on the engines for takeoff. The second stage will be sent to the United States to test the Flight Termination System (FTS). Basically, it will be destroyed to validate that the explosive charges are capable of safely disintegrating the rocket in the event of an in-flight anomaly. PLD Space expects to have the second qualification unit ready in December. The first Miura 5 designed to fly will arrive shortly after. He is scheduled to travel to French Guiana in the first quarter of 2026. Images | PLD Space In Xataka | PLD Space has a detailed plan to become Europe’s rocket factory. And the pieces have started to fit

will arrive in space with a prototype spacesuit for ESA

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Until now, when we thought about Decathlon, a breathable t-shirt, a hiking backpack or that idea of ​​making sport accessible to everyone came to mind. That same company, founded in 1976 in Francehas taken an unexpected step: has collaborated in the development of EuroSuit, a spacesuit prototype that will be tested on the International Space Station. It is not about opening a new market, but about participating for the first time in a European space exploration project together with specialized players in the sector. The mission in which this prototype will be tested has its own name: εpsilon. This is how he baptized the European Space Agency the first expedition of Sophie Adenotscheduled for 2026 and destined for the International Space Station. The name refers to the fifth letter of the Greek alphabet and represents the idea that, in space exploration, each individual contribution can be small, but significant. The accompanying emblem, featuring a hummingbird and surrounded by tiny dots, reinforces that message: great achievements require many discrete contributions. A usability evaluation, not a presentation. EuroSuit is a prototype of an in-vehicular suit that will be tested on board the ISS through a series of planned test sequences: checking whether it promotes mobility, whether it adapts correctly to the body, whether it can be manipulated without assistance and whether it maintains reasonable performance in real conditions. What is sought is not to launch a definitive product, but to obtain data that allows us to know if this type of European design can advance towards an operational suit. The prototype does not arrive at the International Space Station as an individual project, but as part of the program coordinated by the CNES for the εpsilon mission. From Toulouse, the Cadmos center supervises both EuroSuit and other experiments focused on physiology, medical technology, radiation or control of microorganisms. This structure allows us to observe how the devices behave in real conditions of use and collect valuable data for future missions. EuroSuit will be evaluated in that context, with the same rigor as the rest of the tests. When textile knowledge enters orbit. Spartan Space leads the development of EuroSuit and Decathlon brings its expertise in textiles, mobility and functional design. The project is presented as a collaboration that allows adding capabilities without the need for all actors to come from the aerospace sector. The objective is to check if the practical approach to sports equipment can be useful in operations within the International Space Station and if it makes sense to continue with this development model for future European missions. As it is an intravehicular suit, EuroSuit is not intended to replace the pressurized suits used in extravehicular activities or to accompany the astronaut throughout their stay in orbit. It is located in another layer: that of operations within the ship that require protection, comfort and ease of use. It is designed so that the astronaut can put it on and take it off in less than two minutes, without assistance, something unusual in this type of clothing and which could be relevant in case of emergency. Images | THAT | Decathlon In Xataka | This woman has been accused for years of committing the only crime that has taken place in space. It was all a lie

This woman has been accused for years of committing the only crime that has taken place in space. It was all a lie

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Six years ago, his face went around the world. Astronaut Anne McClain appeared in all the media as the alleged perpetrator of the first crime committed outside of Earth. Now we know it never happened. A little context. In August 2019, NASA opened a file to investigate what It seemed like the first crime committed in space.. Astronaut Anne McClain had been accused of identity theft and irregular access to her ex-wife’s financial records while she was on the International Space Station. Specifically, her ex-partner had accused her of “guessing” his credentials to spy on his bank account from space. He had made it up. Six years later, Summer Worden, McClain’s ex-wife and former US Air Force intelligence officer, has pleaded guilty to lying to federal authorities in a twist that definitively closes this unfortunate chapter for the astronaut. According to the official statement From the prosecution, an investigation revealed that Worden had voluntarily shared his credentials with McClain since 2015. The bank account in question had been open since 2018. Worden allowed McClain access until January 2019, at which time he changed the passwords, something he hid to incriminate his ex-partner. Custody of a child as a motive. The accusation came amid a messy divorce and a dispute over custody of a common child. McClain always maintained his innocence, arguing that he had simply reviewed the family finances to ensure there were sufficient funds for the child’s care, something he routinely did with Worden’s consent. The damage to his reputation was immediate and had ramifications and rumors beyond the legal. It coincided with NASA postponing the first all-female spacewalk in its history, starring McClain and Christina Koch. The reason was the lack of suitable suits, but the shadow of the accusation and public scrutiny always loomed over that decision. Redeemed. The resolution of the case comes at a sweet time for Anne McClain. The astronaut has continued working for NASA and, last March, she had the opportunity to return to the ISS as commander of the SpaceX Crew-10 mission. The sentence against his ex-wife will be handed down in February 2026. The maximum penalty is five years in prison and a fine of $250,000. Image | POT In Xataka | How many times have we gone to the Moon and why have only 11 military aviators and one geologist set foot on it in all of history?

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

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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

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