the two pharaonic African gas pipelines that want to change the energy map

The invasion of Ukraine in 2022 dynamited the foundations of European energy security. Before the conflict, Russia supplied between 40% and 45% of the European Union’s natural gas imports, injecting more than 155 billion cubic meters annually into the continent. Faced with the urgency of disconnecting from Moscow, Europe was looking for a place to fill its reserves again and the answer was in the south. To understand the magnitude of this shift, just look at what is happening on the ground. According to The Africa Reportunder the scorching sun of southern Algeria, the energy ministers of Algeria, Nigeria and Niger officially inaugurated the works of the gigantic Trans-Saharan Gas Pipeline (TSGP). It is not a project on paper; the pipes are already being welded. As detailed Al-Monitorthe Algerian state company Sonatrach has begun building a critical 1,210 kilometer stretch in the Aoulef region, which will connect Nigerian gas to the immense Hassi R’Mel field, a node that already has direct arteries to Europe. A question of survival. The European Union plans to end its dependence on Russian gas at the end of 2027. The arrival of a new corridor that provides 30 billion cubic meters of gas per year is a strategic lifeline. But for the African continent, the meaning is even deeper. It is about resolving a historical paradox: being a continent rich in energy but with serious deficiencies in local electricity access. According to an investigation published in the Journal of Geo-Energy and Environmentthe rival project, the Africa-Atlantic Gas Pipeline (AAGP), could generate about $75 million annually in transit revenue for West African countries. Furthermore, these projects are designed so that a part of the gas stays in the transit countries, promoting their electrification, their industrial development and reducing the use of polluting biomass. The battle of the megaprojects. However, this energy awakening has unleashed a fierce geopolitical rivalry. As highlighted The Africa ReportAlgeria and Morocco are competing aggressively to become the exclusive “gateway” for Nigerian gas to Europe, spearheading two colossal megaprojects competing for international funding and European favor. On the table are two titans of engineering that promise to change the world map: The Trans-Saharan Gas Pipeline (TSGP): Led by Nigeria, Niger and Algeria. Business Insider details that it will measure 4,128 kilometers in length. It will cross the desert and it is estimated that its cost ranges between 13,000 million dollars and the 19.5 billion. With the works already started in Algeria, the Minister of Petroleum of Niger has confirmed that his country will begin to build its section of 720 kilometers at the beginning of 2027. The Africa-Atlantic Gas Pipeline (AAGP / NMGP): The Moroccan alternative is even more pharaonic. With a length of between 5,600 and 7,000 kilometers, it will border the entire Atlantic coast, crossing 13 African countries. Its estimated cost amounts to about 25 billion dollars. How to finance infrastructure of this magnitude? academic research concludes thatAfter analyzing multiple strategies, the Public-Private Partnership (PPP) model is the most robust and viable path. This model makes it possible to mobilize the gigantic private capital necessary, transfer the risks of construction and operation, and at the same time ensure that local governments maintain fiscal benefits and employment development. The small print. Despite the euphoria, the obstacles are formidable. As you remember Al-Monitorthe trans-Saharan gas pipeline was conceived in the 1970s and has suffered decades of paralysis. Academic analyzes warn that the viability of the project is threatened by historical security risks in the Niger Delta, northern Niger and southern Algeria, coupled with political instability caused by recent coups in the Sahel region. Furthermore, there is an “elephant in the room”: the energy transition. Natural gas is seen as a transition fuel. So that these gas pipelines do not become stranded (obsolete) assets in the long term in the face of European climate policies, experts point out that they must be designed with operational flexibility. This includes “reverse flow” capability to redistribute energy southwards when Europe doesn’t need it, and even adapt infrastructure to transport green hydrogen in a decarbonized future. A new axis of power. The center of gravity of world energy is falling southward. Europe, cornered by geopolitics, desperately needs the stability of new suppliers; Africa, for its part, demands the investment and infrastructure it has historically been denied. The success of these thousands of kilometers of steel tubes, buried under the burning sands of the Sahara or submerged off the Atlantic coast, will decide much more than the temperature of European homes in the coming winters. The true historical challenge is not to demonstrate that the continent can turn on the northern lights, but to dare to invent a model where Africa stops exporting its wealth to import dependence. The ultimate goal is for African energy to belong to and transform, once and for all, its own people. Image | Unsplash Xataka | The first natural gas that does not depend on fossil sources is already a reality in Europe: it is manufactured in Extremadura by combining hydrogen and CO2

BYD’s plan so that charging your electric car takes the same time as stopping for gas

In recent years we have seen how Chinese brands have begun to conquer Europe with the accelerator pressed, with BYD as the main protagonist. However, let us remember that BYD is not only a manufacturer of cars: it is also a manufacturer of batteries and charging technology. That is why he is going to bring out all the heavy artillery in Europe as well, with a plan of 2,000 million euros to plague the region of ultra fast chargersthose that charge their cars in five minutes and that the brand itself showed us during the presentation of the Denza Z9GT. Breaking down obstacles. Charging has historically been the Achilles heel of the electric car. Not so much because of the capacity of the batteries, but because of how long it takes to charge the batteries compared to a brief refueling in a combustion car. BYD aims directly at this psychological brake with its own infrastructure that equates recharging an electric car to filling the tank of a combustion car. If it manages to impose its infrastructure, it would eliminate one of the great barriers of those who are skeptical about the electric car. Technology. The system Flash Charging It uses chargers with up to 1,500 kW of power, three times more than the most modern Tesla Superchargers, which are around 500 kW. To make the most of it, the car must equip the second generation of the BYD Blade Batteryspecifically designed to withstand these extreme loads. With that combination, going from 10% to 70% battery takes five minutes. The first European model with this capacity is the Denza Z9GT, which we were already able to try first-hand last April and which has a starting price of 115,000 euros in its electric version, acting as a technological showcase for the brand. Already in the presentation we were also able to see how the car, in fact, only took about five minutes to reach 70% of its charge, although the infrastructure that the brand must put in place to reach those figures is no small feat. Numbers. The plan involves adding about 3,000 stations in Europe before the end of 2027, of which 600 correspond to the United Kingdom, where BYD has already inaugurated its first ultra-fast charging point. On the other hand, the manufacturer told us at the time that the idea in Spain is to start with about 200 or 300 chargers. “It’s a lot of money, with each charging point costing almost half a million pounds,” counted Stella Li, the group’s top international executive, told the Financial Times. How they avoid saturating the electrical grid. One of the technical challenges of very high-power chargers is the impact on the electrical infrastructure. BYD solves this with a system of stationary batteries installed at each charging point, which are recharged during hours of lower demand (normally early morning) and act as an energy reserve when a user connects their vehicle. Thus, the peak demand on the network is much lower. The real bottleneck. Curiously, the main obstacle is neither technical nor economic. Bono Ge, head of BYD in the United Kingdom, counted to the FT that “the challenge does not lie in the infrastructure, but in the speed with which the town councils can give their authorization. We can implement it very quickly.” Technological showcase. The move is very reminiscent of Tesla’s Supercharger network, which was key in its commercial expansion by minimizing that recurring thought of having to recharge the car on long trips. Europe already has extensive networks, in fact Tesla has about 20,000 points on the continent, but BYD is betting on fewer and much more powerful stations. The idea is to continue expanding its technology, and make it so that other vehicles can also use their chargers, regardless of the manufacturer. BYD’s market share in the EU has already risen from 0.8% to 1.9% in the first four months of 2026, according to data from the European automobile association ACEA, and in the United Kingdom it reaches 3.4%, above Renault and Volvo. In Xataka | The best electric car chargers 2026: Which one to buy and six recommended models

AI has caused the collapse of even a non-AI industry: gas turbines

When everyone runs away, Meta’s former CTO stays. While the majority of Silicon Valley investors have abandoned the C thesisfile Tech —tired of promises that do not turn into real business—, Mike Schroepfer just announced that it has raised 250 million dollars to do exactly the opposite. Its background, Gigascale Capitalhas closed its first round with institutional investors to back founders who, in their own words, are “rebuilding the brick-and-mortar economy.” The news comes at a time when the climate technology sector has a difficult reputation. As explained TechCrunch, “Conventional wisdom” has been soured by the “Climate Tech” label. Schroepfer, known in the industry simply as Schrepis challenging the market consensus. Or as the same media describes it: “Zigging when most are zagging” (zigzagging when everyone goes in the other direction). Does this bet make sense? First of all, we must understand the underlying problem: gas turbines, the most conventional electricity generation system that exists, currently have a waiting list that extends until the early 2030s. It is not that there is a lack of green technology, it is that there is simply a lack of energy. And companies trying to connect to the electrical grid are finding it increasingly difficult. The person responsible. And the question is, who has accelerated that demand to this point? Artificial intelligence. The sector has undergone a structural change in recent years, driven precisely by the energy demands of AI. Data centers consume huge amounts of electricity and networks cannot cope. Faced with this situation, many companies are trying to generate their own electricity. As Schroepfer himself notedthe “bring your own energy” model (Bring-Your-Own-Power) will become a decisive competitive advantage in intensive industries. But there is no easy path there either: even traditional turbines have a waiting list. As Pulse 2.0 detailsaccelerated electrification, industrial relocation, AI deployment and increasingly extreme climate events are simultaneously putting pressure on physical infrastructure that has been aging for decades. The business of scarcity. The company, Gigascale, was founded in 2023 by Schroepfer along with Victoria Beasley and Evaline Tsai. The fund emerges from a process that the former Meta executive describes as a systematic study of the climate sector during the pandemic. In three years they have built a portfolio of more than 25 companies in areas ranging from clean energy and grid infrastructure to critical minerals, advanced manufacturing and what they call “physical AI”: applications of artificial intelligence to design, manufacture and deploy real-world systems. Schroepfer’s investment logic does not pivot on environmental virtue, but on competitiveness. Their argument is the following: solar went from producing 40 gigawatts a year to 600 in a decade because it became cheaper. “The companies we support win because they are cheaper, faster and more reliable. This is how adoption scales. Climate impact is the result of systems that work better,” declared in a statement. When the waiting list is the opportunity. The fund’s portfolio already has specific names that illustrate this philosophy: New energy generation: Commonwealth Fusion Systems and Xcimer Energy (which achieved the first flash of its commercial laser system in late 2025) are working to make nuclear fusion a reality. For its part, Radiant is moving toward one of the first commercial deployments of nuclear microreactors in the United States. Infrastructure for AI: Arbor Energy has signed an agreement with GridMarket to supply up to 5 gigawatts of clean, zero-emissions energy to data centers. In parallel, Fractile announced a $136 million expansion to manufacture AI processors specifically designed to reduce electricity consumption. Circular and industrial economy: Heron Power, founded by Drew Baglino – former Tesla vice president for propulsion and energy division – develops industrial power electronics. In addition, companies like Dioxycle have signed multi-year agreements with giants like L’Oréal to convert captured CO₂ emissions into ethylene to make packaging. There is an underlying irony. The world has been debating for years how to decarbonize for environmental reasons. And it turns out that the catalyst that is making the transformation of the energy system urgent and inevitable is not any climate summit: it is Artificial Intelligence. As investors flee the label Climate Tech Considering it too ideological or unprofitable, the demand for energy is so brutal that not even the most conventional gas turbines can cope. The opportunity exists precisely because the problem is real. And Schroepfer, who comes from building the systems that consume that energy, is very clear about it. Image | Unsplash Xataka | From “tokenmaxxing” we have moved on to “tokenwasting”: the level of waste in AI is reaching unprecedented levels

In Zambia, gas bubbles in hot springs point to an unusual birth: a new tectonic plate

In 2005, the floor of the Afar Desert in Ethiopia suddenly opens up along more than 50 kilometers in just a few days after an intense seismic and volcanic sequence. For many geologists, that image was like observing in real time the type of fracture that, in millions of years, could end. creating a new ocean. Zambia has just given the most serious warning. Bubbles as an almost unequivocal sign. In Zambia, simple bubbles emerging from hot springs have begun to reveal something much bigger than a local geothermal phenomenon. Scientists at the University of Oxford believe have found signs that the southern African subsoil could be entering an early phase continental fracturea geological process so slow that it is imperceptible for human life, but so gigantic that it can end up rdrawing entire maps. The key is in the helium detected in the thermal springs of the Kafue Rift: Its isotopic composition contains too much helium-3, a chemical marker directly associated with the Earth’s mantle. Translated into less technical language, it means that fluids from dozens of kilometers beneath the crust are finding ways to ascend to the surface. And that, for geologists, is an extremely serious sign that the African crust could be starting to break down from within. A silent crack beneath the continent. Rifts are not simple faults or isolated earthquakes. They are areas where the lithosphere begins to stretch and weaken until, in some cases, it ends separating into tectonic plates different. Most never make it that far and remain an unfinished geological scar, but the Kafue Rift presents something that changes the scene: a active connection between the mantle and the surface. The researchers analyzed gases from eight wells and hot springs, six within the suspected area and two outside it to compare results. Only within the rift did they appear associated chemical signatures to the deep interior of the Earth. In addition to helium, they also detected carbon dioxide with characteristics typical of mantle fluids. For scientists, this suggests that the fracture is no longer solely superficial and that the system could be entering into a tectonic phase more advanced than previously thought. Location map of the extensional zone within the Central African Plateau of Zambia. The Kafue Rift is connected to the Luano and Luangwa rifts to the northeast, and to the western branch of the EARS in the Rukwa rift (RRB) and the Rungwe Volcanic Province (RVP) The possible birth of a new plate. The hypothesis is especially relevant because the Kafue Rift is part of a huge strip of geological weakness about 2,500 kilometersone that crosses Africa from Tanzania to Namibia. For years, many researchers had considered that the great candidate to divide the continent was the East African Rift, in Kenya and Ethiopia, where volcanic and tectonic activity is much more visible. However, the new study of Oxford researchers suggests that the southwest African system could have important structural advantages. According to Mike Dalythe natural crustal weaknesses in that region are better aligned with the tectonic forces acting around Africa, which would reduce the resistance needed for future continental breakup. In other words, the Zambian bubbles could be signaling the extremely slow birth of a new African tectonic plate. The continent moves, even if you don’t notice it. The investigation It also serves as a reminder that Earth is still a planet geologically alive. Hundreds of millions of years ago, all continents were part of Pangea before slowly breaking up into their current shape. That process never stopped. Beneath our feet, tectonic plates continue to shift, recycling minerals, raising mountain ranges and opening new oceans. Africa is today one of the places where this dynamic can best be observed. From the Afar Depression to the East African Rift, the continent already presents huge tectonic scars visible from space. What is happening in Zambia could be an additional piece of that continental puzzle, although scientists insist that we are talking about time scales of millions of years and not immediate changes. A geological fracture… and economic opportunity. Beyond scientific fascination, the discovery It has very real economic implications. Early rift systems typically offer relatively clean access to geothermal energy and gases valuable substances such as helium and hydrogen, increasingly important for the technology and energy industry. Unlike mature volcanic zones, where fluids appear mixed with more aggressive and difficult to handle gases, in Kafue the material from the mantle still arrives relatively “pure”. In fact, that is precisely the reason why several energy companies already They are funding research in the region. The problem is that the authors of the study themselves they ask for caution: The samples come from only a specific part of the system and it remains to be seen whether these signals are repeated throughout the entire fracture. But even with caution, the idea is so powerful that it is already on the table: in Zambia, the bubbles that silently emerge from a hot spring could be announcing the beginning of a continental separation that will one day change Africa forever. Image | PexelsDaly et al., 2020 7 Legg, 1974; Tamburello et al., 2022 / R. Karolytė et al. 2026 In Xataka | We thought we were clear about how the continents were formed, until researchers found a stone in Australia In Xataka | More than 5 million earthquakes spread throughout the Earth, gathered in a very complete map

Without gas stations in space we will not reach Mars. NASA knows this and is finally doing something about it

Much of a spacecraft’s fuel is consumed in maneuvers to leave Earth’s orbit. For this reason, as manned missions move further away from our planet, we must begin to think about use space gas stations. These are not fuel pumps floating in space, but satellites, or even ships, capable of transferring fuel to a ship that needs it to travel further. At the moment, this is one of the weak points of many missions, so it is important to start working on technologies that allow it. At NASA they are very aware of this problem, hence this year they are going to launch LOXSATa mission that will test 11 different technologies to guarantee the transfer of propellants. 9 months ahead. LOXSAT is a NASA mission in collaboration with the company Eta Space. The objective of this mission is to test different cryogenic fluid management technologies so that in the future propellant tanks can be created in space. The mission will remain in low Earth orbit for 9 months. Meanwhile, 11 technologies will be tested focused on achieving four objectives: reducing boiling, improving propellant transfer, maintaining stable pressure and measuring propellant levels. The big problem. Cryogenic propellants, such as liquid oxygen at extremely low temperatures, are very efficient, but they have a major disadvantage. And in microgravity conditions, when the transfer between ships is carried out, the temperature cannot be kept low enough, so the fuel boils and suddenly transforms into gas. This causes a huge increase in pressure, which can endanger the ships involved. It seems to be that precisely this problem is the one that is giving SpaceX the most headaches. Like Blue Origin, this company must demonstrate its ability to refuel in space to be part of the Artemis missions, but it is not being easy. This is the reason why with LOXSAT methods will be tested to maintain stable pressure and reduce boiling. Space gas stations. The objective of this mission is to perfect the technology so that in the future there can be fixed propellant tanks in space. In other words, they hope that as we colonize space terrain we have gas stations so as not to run out of fuel. China on the heels. Ideally, in the future, large ships could exchange propellant. No space agency has achieved anything like this. However, China has indeed achieved it with satellites, in their Shijian missions. Plus, they did it in a higher orbit, so they are ahead of NASA in the particular race that has been uniting them for so long. Of course, at the moment, China has not tested cryogenic propellants, but tried hydrazine replenishment. There is still room for improvement. Write down the date. The mission will depart aboard an Electron rocket from Rocket Lab. The launch will be in the summer, no earlier than July 17, from New Zealand. Images | POT In Xataka | Jeff Bezos’ space company has overtaken SpaceX in a key milestone to go to the Moon and Mars: zero evaporation

has ended with closed stores, fights and tear gas

In 2026 it is no longer strange see long lines of people who spend the night outside the stores of a certain brand waiting for the launch of one of their products. What is not so common is to see them at the doors of a youth watch store to a watch that costs 400 euros. Triple that of the average of their watches. The launch that occurred this weekend was not just any launch, what all that people who were waiting patiently at the doors of the shops I longed for the Swatch Royal Popa watch that emerged from the alliance between Swatch and Audemars Piguet, a Swiss firm whose royal oak from which this model is inspired, starts at 20,000 euros. Such a fuss has been made to achieve this, that even the police have had to use tear gas in some stores. Luxury watchmaking for generation Z Swatch has been partnering with luxury Swiss watch brands for years to bring haute horlogerie to a generation Z more familiar with smartwatches than with traditional mechanical watches. From there collaborations such as the MoonSwatch with Omega in 2022, with Blancpain and now with the prestigious Swiss manufacturer Audemars Piguet. According to published the medium of fashion and trends #Legendthe MoonSwatch series created by Omega for Swatch sold more than one million units in its first year and generated around $275 million in revenue. Given such success, the Swiss brand wanted to replicate the recipe with the Royal Pop by Audemars Piguetand get a “luxury” watch adapted to the taste of generation Z. The Royal Pop transfers that haute horlogerie aesthetic to eight pocket models with Swatch’s characteristic colors, at a price between 385 and 400 euros. A seemingly simple and affordable proposal to wear a luxury piece on your wrist that, however, has exceeded the capacity of Swatch stores from all over the world, to the point that the brand had to make a call for calm from their social networks. MoonSwatch with developed by Swatch and Omega Going for a 400 euro watch that already costs 2,500 on Wallapop The collection was put on sale with a restriction of one watch per person per day. That limitation, far from slowing down demand, triggered it. In Barcelona, ​​hundreds of people had been camping for days in front of the store and the Mossos d’Esquadra they had to intervene and order the closure of the premises. In Paris, the police used tear gas to control about 300 people, and in Milan there were fights between clients and security. The local press from Seville said that long queues also formed in the center of the city. According what was published by The Wall Street Journal, Most stores sold out in a matter of minutes and Swatch preemptively closed stores in the United Kingdom, the United States and Europe. A few hours after the launch, Royal Pop was already appeared on Wallapop for a resale price of between 600 and 2,500 euros, and on eBay some pieces were ordered for 17,000 euros. The dynamics of this second hand massive sale has been identical to that of the launches of limited edition sneakers or other exclusive products: buyers with knowledge of the market grabbed the first places in the queue days before their launch and bought and resold immediately, taking advantage of the shortage in the first units. According to collected Reason Whysome of those who were legitimately interested in the watch complained about the way in which Swatch had organized the launch: “What happened in the stores in Madrid is a shame. Zero security control, mafias sneaking people by the dozens into the first positions and zero concern for those truly interested in the watch and not in resale. It’s time to sell the collection and never touch a Swatch again,” declared one of the people waiting in line at a store in the capital. A success as a product, a failure as a brand The Royal Pop chaos is a case of success and failure at the same time. If you look up the definition of “dying successful” in a dictionary, a Swatch logo will appear. The collection created together with Audemars Piguet has been a resounding success and shows that Swatch’s recipe to try to attract generation Z to the world of luxury watchmaking is the right one. As and as they point out in Marketing InteractiveWith this strategy, both brands win because Swatch ensures large sales in the present, while Audemars Piguet positions itself as an aspirational brand for a new generation of potential. buyers in the future. The problem is that the management at the Swatch points of sale has been a disaster lacking any foresight, to the point of requiring the intervention of the police to avoid greater evils. This lack of foresight in such a strategic launch makes the customer feel reluctant to participate in the next campaign because they do not want to have to spend days camped in front of the store to get their unit, even more so when the product is targeted to an audience who, in the near future, aspires to wear an Omega, Audemars Piguet or Blancpain watch on his wrist. In Xataka | Some OT contestants did not know how to read a clock hands. Science has clues as to why it is becoming more common Image | Swatch

steal materials from the asteroid belt (with a stop at a gas station)

We haven’t built yet bases on the Moonbut already there are those who think in that future in which settlements can be built on Mars. If our satellite is a challenge, the red planet is already the pinnacle of complexity. Therefore, although there is still a lot of time for it to be viable, it doesn’t hurt to think about strategies. A good example is the proposal just made by a team of scientists led by aerospace engineer Serena Suriano. His proposal is based on one of the main problems that the space masons: the lack of materials. In the absence of suitable metals for construction there on Mars, they would have to be sought in the vicinity of the red planet. To do this, they propose “looting” the asteroid belt. It’s not that easy. In the asteroid belt There are metallic asteroids that could be mined for necessary metals such as molybdenum. But there is a problem. Traveling to these asteroids to take construction materials to Mars is not like taking the car on a Saturday to go to Ikea. In that case, the biggest handicap is the families that overcrowd the spaces. In the case of asteroids, the main problem is the orbital dance necessary to leave Mars, reach the asteroid and return. Luckily, these scientists consider that the problem could be solved with a couple of pit stops. An (almost) imaginary ship. When making calculations, it is normal to start from the parameters of a ship that actually exists. For this reason, these scientists have made simulations with an imaginary ship that is not the same, but looks like quite to the SpaceX Starship. The most powerful imaginable today. The ship in question weighs 120 tons, can carry a payload of 115 tons and hold up to 1,100 tons of fuel. This would mean a delta-v of 6.4 km/s. And what is that? The delta-v is a measure of the amount of effort necessary to carry out an orbital maneuver. In simpler terms, it is the change in speed that can be achieved by burning all the fuel in a ship. In this case it would be 6.4 km/s. The problem is that to reach the metallic asteroids that could be mined to build on Mars, taking into account the necessary orbital spins, a delta-v of 10 to 12.8 km/s would be needed. It can be solved. These scientists have designed a plan that includes two pit stops. The first would be on the metallic asteroid itself. Once the materials have been extracted, on the way back we would have to stop at a type C asteroid. These contain volatiles such as water and hydrocarbons, which would facilitate a process known as production on site of propellant. In other words, the type C asteroid would be used as a gas station, using its resources as propellant to continue the trip. If these stops are made, the necessary metals could be obtained with a delta-v of 6.4 km/s. The imaginary ship looks like Starship, but it is not the same 22 pairs. In total, there are 22 pairs of metallic asteroids and C-type asteroids in a 20-year window starting in 2040. This means that, from that moment, when it is assumed that trips to Mars and the construction of bases could already be viable, there would be more than 20 mine and gas station options to bring metals to the red planet. In total, 200 tons of metal could be obtained in that period. It may not seem like much if we consider that it is little more than the payload for a single trip. But fuel needs to be optimized. The loading process on site of propellant is carried out at a rate of 2 kg per day. To fill the tank it would take about 1,500 years. Logically, that is not viable, so you have to go with the tank half full and, therefore, adjust the payload. Why 20 years? For the trip to take place, it is necessary that the orbits of Mars and the asteroids are correctly aligned. It’s as if the road to Ikea only opens once every few years. Therefore, many trips could not be made. Building an entire base would take a lot of time, but it’s something you have to take on. A solution. If chemical propulsion is changed to solar propulsion or nuclearit would be much easier to extract metals from asteroids and, possibly, the deadlines would be shorter. However, these scientists have chosen to make their calculations with the only viable technology today. Maybe in the future the trip will be a little shorter than all this. Of course, building a base will continue to be a very, very long process. Many generations of humans would retire looking at those works. Image | NASA | SpaceX In Xataka | Elon Musk says it will take 1,000 Starships and 20 years to build the first sustainable city on Mars

Meta and Google talk about nuclear fusion for the future; The short-term reality is that they are pulling natural gas

Silicon Valley has an undeniable gift for selling the future. If one listens to the great technological leaders, Artificial Intelligence will soon be powered by energy sources worthy of a science fiction novel. Goal just signed an agreement to obtain solar energy directly from satellites in space, while figures such as Sam Altman, CEO of OpenAI, They assure that nuclear fusion It is the great “silver bullet” that will save the sector. However, it is enough to look down from the stars to the earth to find a much smokier reality. To feed the insatiable “energy monster” that AI has unleashed, big technology companies are turning to the technology of the past. As explained from Axiosthe race to dominate artificial intelligence is accelerating at such a dizzying pace that the industry’s ambitious climate goals are taking a discreet backseat. Today, the world’s most sophisticated cloud is being built on a foundation of fossil fuels. The numbers speak for themselves. Far from nuclear fusion laboratories, the actual infrastructure being built in the United States tells a story based on natural gas. Meta’s case is perhaps the most graphic, as detailed in Bloomberg, US utility Entergy Corp. has had to increase its capital spending plan by almost a third, reaching $57 billion, to build 10 new natural gas plants dedicated exclusively to powering the new data campus Hyperion of Meta in Louisiana. This gigantic complex will require more than 7 gigawatts of power, the equivalent of the output of seven large nuclear reactors. Google, the historic champion of clean energy, is not far behind either. An investigation by the market intelligence firm Cleanview has brought to light Google’s partnership with the company Crusoe Energy to develop a huge data center in Texas named “good night“. The project includes a 933-megawatt gas plant built outside the traditional electrical grid. The end of the green utopia? The environmental impact of this installation is not minor, how to explain Guardianthe plant will emit up to 4.5 million tons of carbon dioxide per year. To put it in perspective, this exceeds the annual emissions of the entire city of San Francisco or is equivalent to putting 970,000 additional gasoline cars on the roads. Given this, Google’s official position is cautious. Chrissy Moy, company spokesperson, does not deny the project before the mediaalthough it clarifies that, although they are linked to the campus, they still “do not have a contract in force” to acquire energy from said gas plant. How have they developed in oil pricethe origin of this sudden gas rush is that data centers are putting local power grids under unprecedented pressure, causing consumers to bear the cost of this increased energy competition. To overcome the slow expansions of the public network and the endless waiting lists for permits, Wired points out that data center developers They are choosing to generate their own energy “behind the meter” (off-grid). And in that fast and private strategy, gas is king. Their green mask falls off. This is a serious blow to Silicon Valley’s green image. As you remember GuardianGoogle was once a pioneer in promising net zero emissions by 2030. However, the company itself has had to admit that its carbon emissions have increased by 48% in the last five years due to data centers. Now, those environmental objectives have been internally downgraded to the category of climate moonshots (speculative projects very difficult to achieve). The underlying problem is purely physical. As he reflects Impakterenergy—not chip shortages—is emerging as the real bottleneck for AI. Traditional renewable sources are intermittent, and large language models require devouring electricity 24 hours a day. A systemic problem that is already raising blisters in Washington. The return to natural gas is not an isolated anecdote of a couple of companies. There are currently about 100 gigawatts of gas-fired power in development in the United States destined for data centers alone. Microsoft just signed a deal with oil giant Chevron in Texas, and permits for OpenAI’s Project Jupiter in New Mexico suggest it could emit up to 14 million tons of greenhouse gases annually (triple that of Google’s project). Faced with this fossil avalanche, Democratic senators such as Whitehouse, Van Hollen and Heinrich have sent letters demanding formal explanations from leaders of Meta and OpenAI for putting the country’s climate commitments at risk. The industry defends itself by arguing that it is a necessary evil. Cully Cavness, president of Crusoe, explained that natural gas it is a critical “bridge” and the only power source available today capable of scaling at the pace AI demands. Next-generation clean alternatives will take decades. Meta’s promising agreement to receive solar energy from space will not have a pilot satellite until 2028and its commercial viability is not expected, at best, until the 2030s or 2040s. The same happens with commercial fusion reactors: they will not dump a single watt into the grid well into the next decade. The great paradox of AI. Business magazines celebrate the financial success of this revolution. In their profiles of the most influential companies, TIME relates how Google, under Sundar Pichai, has reached a $4 trillion market value driven by its advances in AI, while Mark Zuckerberg celebrates record ad revenue on Meta by promising systems that will soon “understand the unique personal goals” of each user. Silicon Valley promises that this same Artificial Intelligence will one day help us solve humanity’s great challenges, including climate change itself. But the current paradox is inescapable: in the real world of 2026, to train the most brilliant and avant-garde artificial mind ever created, human beings still inevitably need to set natural gas on fire. Image | Photo by Tasos Mansour on Unsplash Xataka | Solving the mystery of the red balls on high-voltage cables: a simple way to save lives

The world depends on gas to produce food. Paraguay believes it has the definitive solution thanks to the Itaipú dam

In the midst of a scenario of high tension in the Middle East and threatened trade routes, a project in the heart of South America promises to change the rules of the game for global agriculture. The British company Atome has given the final green light for the construction of Villetaa fertilizer plant in Paraguay valued at 665 million dollars, which will completely eliminate the use of fossil fuels in its production. A question of food safety. As detailed Financial Timesthe fertilizer industry’s dependence on natural gas is an Achilles’ heel for the global economy. Traditionally, most nitrogen fertilizer is produced by combining nitrogen from the air with hydrogen extracted from natural gas. However, Villeta will use renewable electricity to separate hydrogen from water (electrolysis). For Olivier Mussat, CEO of Atome, the project’s focus goes far beyond sustainability. “It’s not an ecological story, it’s actually a food security story,” declared in FT. Mussat’s warning is no small matter, since between a quarter and a third of global nitrogen fertilizer exports pass through the Strait of Hormuz. With the recent conflicts, gas shipments have fallen, raising prices and raising alarms about a possible food crisis. For Latin America, an agro-export power but highly dependent on imported fertilizers, the project works as a “structural hedge” against geopolitical volatility. The financial milestone that Wall Street observes. Atome managed to close a financing package that includes $420 million in debt and $245 million in equity. This backing comes from development lenders of the caliber of the International Finance Corporation (IFC) and the European Investment Bank (EIB), along with specialist hydrogen investment fund Hy24. “We have shown that you can actually close and finance a green fertilizer facility on an industrial scale. It has never been done before,” Mussat said. For his part, Pierre-Etienne Franc, executive director of Hy24, explained to the press that having cheap and non-fossil energy sources offers “a route to green fertilizer that will be localized”, making the industry independent of raw material prices dictated by natural gas. The technical feasibility. Green hydrogen has historically been too expensive to compete with its fossil counterpart. However, Paraguay’s competitive advantage changes the equation. The Villeta plant will operate with electrolyzers large-scale powered by the Itaipú hydroelectric dam (shared between Paraguay and Brazil). According to the company’s projections, electricity costs will be just under $30 per megawatt-hour under a long-term agreement. This technical and economic feasibility was enough to convince the Norwegian fertilizer giant, Yara International, to sign a binding contract of 10 years to purchase the entire production of the plant, estimated at around 260,000 tons per year, a detail exhaustively covered by the industrial press. The view from Asunción. For decades, Paraguay has exported its surplus energy generated in Itaipú to its neighbors, Brazil and Argentina, at very low prices. For the local pressAtome’s installation represents a historic paradigm shift. It means taking that clean energy and using it within the national territory to generate local jobs and produce a good with high added value. Although Villeta will represent less than 1% of the global nitrogen fertilizer market when it begins production in 2029, its backers and market observers agree on something fundamental: if the Paraguayan model works, it could become the definitive template for freeing global agriculture from its dependence on fossil fuels. Image | Atome Xataka | We are wasting a valuable resource: urine is helping solve the fertilizer crisis

A “floating gas station” in the middle of the ocean is making a fool of the US

In the satellite images of certain points in Southeast Asia there are days in which dozens of oil tankers appear completely stopped in the open sea, forming a kind of improvised parking lot in the middle of one of the busiest shipping routes of the world. Some stay there for hours, others for days, with no apparent direction, as if waiting for something that never comes… or that happens when no one is watching. An invisible map in the middle of the ocean. I told the story this week CNN through data by MarineTraffic reviewed by the media. For years, the Iranian oil trade has followed a logic that barely left a trace in official records, with ships disappearing and reappearing in tracking systems and shipments whose origin changes depending on the document consulted. This dynamic, it seems, has allowed us to sustain a constant flow towards China even under sanctions, relying on a network of intermediaries, opaque routes and an aging fleet that operates on the margins of the international system, similar to the “Russian model”. It happens that what seemed like a succession of dispersed maneuvers begins to draw a much more defined pattern: a floating infrastructure that works away from the spotlight. The “floating gas station”. They explained in the exclusive that, in waters near Malaysia, in the area known as Eastern Outer Port Limitsa key point has been consolidated where dozens or even hundreds of ships remain waiting, exchanging oil in ship-to-ship operations that completely transform crude oil traceability. This enclave acts as a authentic service station intermediate where Iranian oil changes hands, identity and destination before continuing its journey towards Asia, becoming a central gear which allows Tehran to maintain stable exports despite international pressure. Its location, close to critical maritime routes and outside effective control, makes it the ideal place for this type of operations. SAR satellite images show vessels within the outer boundary of the Eastern Harbor off the coast of Malaysia on April 18, 2026 How the shortcut to China works. The system follows a precise and repeated logic: one where large oil tankers load crude oil at Iranian facilities, cross the Indian Ocean and reach this area. where they transfer their cargo to other ships, which in turn transport it to Chinese refineries. In this process, oil change label and appears as originating from countries such as Malaysia or Indonesia, hiding its real origin in official data. This mechanism allows China to continue receiving large volumes of crude oil at reduced prices, while Iran ensures constant income that sustains its economy in a context of sanctions. MarineTraffic data shows the multiple trips the MT Tifani made between the Persian Gulf and the EOPL from April 2025 until its capture by US forces in April 2026 “Ghost” fleet that does not stop. Behind the system are hundreds of vessels that change flag, name and owner frequently, making them difficult to track and reducing their exposure to sanctions. Many operate without identification active for long periods, activating and deactivating its location systems as appropriate, which further complicates any control attempt. The magnitude of the activity is growingwith hundreds of annual transfers that, in practice, turn this maritime space into one of the most active (and least transparent) points of global energy trade. The fight with Washington reaches another board. In the background, a story that remembered the wall street journal the weekend. Recent oil tanker seizures like MT Tifani They reflect a change in strategy on the part of the United States, which has decided to extend its pressure beyond the Middle East and act directly on these distant routes. These interventions they seek to interrupt a system that has operated for years with relative impunity, although they also show the difficulty of stopping such a distributed and adaptable network. Each intercepted ship is a signal, although the total volume of traffic suggests that the mechanism remains fully operational. Floating reserves and economic war. Beyond the immediate exchangethis network also works as a strategic reserve on the high seas, one with millions of barrels stored on oil tankers waiting to be delivered when conditions permit. There is no doubt, this capability offers Iran a mattress facing blockages or interruptions, bringing oil closer to their final buyers and reducing its dependence on vulnerable routes like right now in the Strait of Hormuz. In short, the system represents much more than an evasion of sanctions, approaching an entire logistics architecture designed to keep open a critical avenue of income in the midst of conflict. Image | Department of Defense, MarineTraffic, Sentinel 1/European Space Agency In Xataka | Ukraine taught how to use drones. Iran has gone one step further: turning them into a crusher for US radars and bases In Xataka | If the war resumes again, the US runs a risk unprecedented in the history of war: that the only one with missiles will be Iran.

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