Mercedes believed that the new electric motor in its AMG GT was “barely feasible.” Now it aims to be the future of all electric vehicles

A few days ago, Mercedes finally announced the start of serial production of your axial flux motor at the historic Berlin-Marienfelde plant. This has serious implications for the future of electric cars, as the technology that powers this engine promises to redefine what a high-performance electric vehicle can do. That is why under these lines we are going to tell you all the details. What exactly happened. On June 9, Mercedes confirmed the start of serial production of this new engine in Berlin-Marienfelde, the historic factory founded in 1902 that has now been converted into the center par excellence for the brand’s high-performance electric motors. The first production model to debut is the new Mercedes-AMG GT 4 Door Coupea car that has also been left in the background in the conversations of recent weeks due to Ferrari and its first electric, Luce. However, this new vehicle will be the very first host of Mercedes’ new axial flow engine, which enters large-scale industrial manufacturing in a 30,000 square meter plant, three pavilions and seven production lines. Why is this engine different?. The vast majority of current electric cars use radial flux motors. In these, the magnetic field goes from the center outward, like the spokes of a bicycle wheel. In an axial flux motor, this field runs parallel to the axis of rotation, which allows the internal components (rotor, stator, etc.) to be coupled in flat layers facing each other, something like a sandwich. This arrangement makes the engine much more compact and lighter for the power it is capable of generating. Where does this technology come from?. The story begins in 2009, when engineers from the University of Oxford They founded the British company YASA with the aim of developing axial flux electric motors. Before arriving at Mercedes, YASA already supplied its engines to manufacturers such as Ferrari, Koenigsegg and Lamborghini. In 2021, Mercedes acquired the company seeing the potential these engines could have in their future AMG models. From there, the challenge was to transfer this technology from the laboratory to the mass production chain, something that, according to the company itself“for a long time it was considered barely feasible due to its complexity.” Figures. In its development phase, YASA presented an engine weighing just 13.1 kilos capable of generating 550 kW, which is equivalent to 738 HP, with a power density of about 42 kW per kilogram. It is no small feat, since if we compare these figures to those of the best radial engines, it practically doubles them. In more recent iterations, that same concept, weighing only 12.7 kilos, reached 750 kW of peak power, close to 1,000 HP. What comes out of those production lines. The AMG GT 4 Door Coupé mounts three axial flux motors grouped in modules called High Performance Electric Drive Units, which integrate motor and reducer in the same housing. One is on the front axle, less than 9 centimeters wide, and two on the rear axle, just 8 centimeters wide. Despite these dimensions, in its most powerful version (the AMG GT 63) the set adds 1,169 HP and 2,000 Nm of torque, with acceleration from 0 to 100 km/h in 2.1 seconds and a maximum speed of 300 km/h with the specific high-performance package. The challenge of manufacturing it. Making this engine in series has required processes that did not exist before. And just as account Mercedes in its official publication, of the 98 stages that make up manufacturing, 65 are used for the first time within the Mercedes group and 35 are completely unprecedented worldwide, generating more than 30 patent applications. According to the brand, one of the most technically demanding steps is what the factory calls “the wedding”, the moment in which the stator is placed between the two magnetic rotors. The magnetic forces are equivalent to about 900 kilos, and the margin of error allowed is less than a tenth of a millimeter. To do this, a control algorithm sends adjustments in the last 0.5 seconds of the process to ensure alignment. Mbeyond the AMG GT. The axial flux engine has not arrived in Berlin just to power an electric supercar. From Autoblog they point out that, given its compact and modular design, the technology is easy to adapt to different platforms. The usual industry logic also applies here, as when production volumes increase, costs fall. So there is hope that these types of engines will end up reaching more accessible models in the future. We will have to wait to find out if it really ends up being like this. For now, ArenaEV point to the CLA as a possible future candidate. It should be noted that Mercedes is not the only one working on axial flux engines, but it is the first to bring them to mass production in a series vehicle. Manufacturers such as Ferrari, BMW, Koenigsegg or Alpine are already investigating this technology. After all, electric cars are heavy by nature, so a lighter and more compact engine helps offset that burden without sacrificing performance. Tim Woolmer, CEO and founder of YASA, affirms that this technology “will change the game in the high-performance automotive sector.” We’ll see if it ends up being that way. Cover image | Mercedes-Benz In Xataka | Michael Leiters, CEO of Porsche: “We rushed with the Taycan, a 911 will never be an electric car”

your dream of putting AI data centers in space is probably not feasible

The possibility of setting up data centers for artificial intelligence (AI) in space is very attractive. So much so that several CEOs of some of the largest technology companies in the US have not hesitated to get wet and ensure that support this strategy. Jeff Bezos predicted in early October 2025 that data centers will reach space over the next two decades with the purpose of solving in one fell swoop the power supply problems currently posed by these facilities on Earth. Elon Musk did not take long to encourage the discussion even more. Shortly after Bezos’ statement posted a tweet in X in which he assured that SpaceX only needed to scale its Starlink V3 satellites equipped with high-speed laser links to bring this idea to fruition. In fact, he closed his tweet with a forceful statement: “SpaceX is going to do it”. However, the laws of physics are implacable. And SpaceX has had no choice but to acknowledge to its investors the daunting challenges that this project entails. Orbital data centers may not come to fruition According to ReutersSpaceX has delivered an official document to its investors in which it recognizes that both orbital AI data centers and human settlement on the Moon and Mars depend on technologies that have not yet been developed or tested, and that, therefore, may not be viable from a commercial point of view. SpaceX is preparing its IPOand this evaluation puts on the table the caution required by the legal obligation to be extremely honest with the risks to avoid future lawsuits from new shareholders. “Our efforts to develop orbital AI computing and in-orbit, lunar and interplanetary industrialization are in the early stages and involve significant technical complexity and the use of technologies that have not yet been tested. For these reasons they may not be able to achieve commercial viability,” SpaceX clarifies. There is no doubt that the challenges that need to be solved for data centers to reach space are colossal. The challenges that need to be solved for data centers to reach space are colossal One of them is the impact of the ionizing radiation about the hardware. This form of radiation is a type of high-frequency energy, such as X-rays, gamma, alpha or beta, which is capable of tearing electrons from atoms, thus altering the structure of molecules. In space, server chips are not protected by the Earth’s atmosphere and magnetic field, which makes them very vulnerable to ionizing radiation, which has the ability to permanently degrade them. To solve this problem it will be necessary to develop some type of shielding capable of protecting the hardware of the servers of the cosmic radiation. This requirement leads us to the next critical challenge: in space it is not possible cool servers using convectionas on Earth, because in the vacuum of space there is neither air nor water. In addition, it would be necessary to use enormous radiators. It is possible to propose several solutions to these problems, but we must not overlook that it is crucial to minimize the weight and complexity of the material that needs to be put into orbit. Otherwise its commercial viability will be non-existent. The two challenges we just delved into are probably the most difficult to solve, but orbital data centers pose more difficulties. One of them is that to deliver the gigawatts per hour they require, it would be necessary to use enormous solar panels. Furthermore, in some applications the latency that these space installations would introduce would probably be unaffordable. And, on top of that, maintaining an orbital data center would be extremely expensive. In fact, it probably wouldn’t even be economically feasible, forcing its owners to introduce massive redundancy that would push it away from profitability. Image | freepik More information | Reuters In Xataka | Elon Musk knows that TSMC is overwhelmed: Terafab is his idea to completely change the global chip industry

20 years after Dolly we still haven’t cloned humans, but stopping aging is feasible: Crossover 1×32

In the summer of 1996, a Scottish laboratory made a breakthrough that would forever alter our understanding of genetics and ignite intense debates about the ethics and the possibilities of cloning. That day Dolly was bornthe first mammal cloned from an adult somatic cell. This milestone, achieved by researchers at the Roslin Institute, opened a new era in genetic engineering and shattered the belief that only embryonic cells possess the potential for the complete development of a new individual. Since then there has been debate about the possibility of cloning human beings, but we have not done it and it does not seem that we will ever do it. Serezade, molecular biologist, researcher and scientific communicator, talks to us about that and many other things this week. But we also discussed with her another fascinating topic: how the latest advances seem to be achieving something long sought after: slow aging. There is a lot of fabric to cut here, and for example the environment, culture and habits shape our DNA. But there are also risks, ethics and genetic privacy intertwined. And all this raises a key question: does it make sense to be immortal? On YouTube | Crossover In Xataka | The promise of 120 years is dismantled: biology sets a life ceiling that is quite difficult to break

The reactive the great debate on universal basic income. And the question is whether it is feasible to create it: Crossover 1×23

One hears about Universal basic rent and inevitably thinks that It’s money that gives you free. The idea goes far beyond that, but one thing is true: with the rise of AI and the potential revolution of robotics, the debate about this option is more rising than ever. And precisely this 1×23 crossover is dedicated to talking about universal basic income, its origins and what it means. And to do so are Jaume Lahoz and Carlos Santa Engracia, presenters of Crossover, and a server, Javier Pastor, to dissect the theme. The truth is that we are increasingly facing a future in which AI and automation can help Create ultraproductive companies. In that scenario it is likely that the impact for employment and society will be enormous, and that is where a Universal basic rent You can raise a solution to that “mass and forced unemployment.” In the episode we talk in addition to the Pilot experiments That there has been in various countries, and also how Sam Altman, CEO of OpenAI, is especially interested in this area through its controversial Worldcoin project. Like everything, in the idea that projects universal basic income there are clear advantages and of course also risks. Will we become a society Like the one painted ‘wall-e’? ¿We will all gorditos And without moving from a chair that levita and takes us everywhere? Phew. On YouTube | Crossover

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