News
SpaceX shuffles Starships, gears up for more Super Heavy static fires
SpaceX is busy preparing for the orbital launch debut its next-generation Starship rocket, but the company’s South Texas rocket factory is also working around the clock to prepare several more sets of ships and boosters for the flight testing that will follow.
That was more obvious than usual on November 8th, when SpaceX made moves to prepare both of its finished Starships for new phases of testing. SpaceX kicked off the busy day by removing Starship S25 – a newer prototype that arrived at the launch site just three weeks prior – a stand dedicated to proof testing ships. Three hours later, after spending three of the last four weeks sitting on top of Super Heavy Booster 7, Starship S24 was ‘destacked’ (lifted off of B7 and lowered onto a stand on the ground) in the early afternoon.
Booster 7, Ship 24, and Ship 25 have all been busy since mid-October. SpaceX stacked Booster 7 and Ship 24 for the first time on October 11th and then attempted to test the fully-stacked rocket on October 13th. By some accounts, although almost nothing was visible to the public, the first full-stack test may have gone poorly, potentially even endangering pad technicians that approached the rocket to troubleshoot. On October 16th, SpaceX fully destacked Ship 24, and CEO Elon Musk noted that the company was “proceeding very carefully” to avoid an explosion that could set “Starship progress back by ~6 months.”
But if there was a major issue on October 13th, SpaceX didn’t show it, and Ship 24 was reinstalled atop Booster 7 on October 20th without any obvious maintenance or repairs. SpaceX then kicked off an unusual series of tests on October 24th, during which it only filled the liquid oxygen (LOx) or liquid methane (LCH4) tanks of Super Heavy B7, Ship 24, or both vehicles at once. A rare NASA briefing on October 31st later called them “single-species prop[ellant]” tests – a kind of extra-cautious testing that had never been seen before at Starbase. A few days prior, a member of NASA’s Aerospace Safety Advisory Panel (ASAP) noted that an accidental explosion that damaged Booster 7 in July had caused SpaceX to “increase [the rigor of its] systems engineering and risk management,” explaining the sudden influx of unusually conservative testing.
By the time Ship 24 was destacked from Booster 7 on November 8th, SpaceX had completed seven single-species tests, four of which involved loading LOx or LCH4 into both stages and three of which only tested Super Heavy. Booster 7 and Ship 24’s tanks were fully filled and LCH4 and LOx were never simultaneously loaded on either stage.
NASA’s October 31st briefing reported that SpaceX had plans to destack Ship 24 before conducting additional static fire testing with Booster 7. While B7 completed 1, 3, and 7-engine static fires in August and September, those tests were nowhere close to the full 33-engine static fire required to properly qualify the most powerful rocket in history. According to NASASpaceflight.com managing editor Chris Bergin, SpaceX’s next goal is to fire up approximately half of Super Heavy B7’s Raptors.
Strangely, although Ship 24 was believed to have completed all of the standalone testing needed to clear it for flight, SpaceX installed the vehicle on a stand used for Starship static fire testing on November 9th, implying that more standalone testing may be required. For now, that shouldn’t pose a problem as long as SpaceX wraps up any additional Starship testing around the same time as Booster 7’s next static fire campaign wraps up, but it could delay full-stack launch readiness if it takes any longer.
Finally, after Ship 25 was removed from SpaceX’s other Starship test stand on November 8th, it was rolled back to Starbase’s Starship factory. Ship 25 first rolled to the launch site on October 19th and has since completed four visible tests. On October 28th, Ship 25 survived a pneumatic proof test that showed that its tanks were leak-free and capable of surviving flight pressures (roughly 6-8.5 bar or 90-125 psi). Three cryogenic proof tests followed on November 1st, 2nd, and 7th. The first cryoproof was likely just that – a test that pressurized Ship 25’s tanks and filled them with cryogenic liquid nitrogen (LN2) or a combination of liquid oxygen and LN2.
The next two tests likely took advantage of the customized test stand, which has been semi-permanently outfitted with a set of hydraulic rams that allow SpaceX to simulate the thrust of six Raptor engines while Starship’s structures are chilled to cryogenic temperatures and loaded with roughly 1000 tons (~2.2M lb) of cryogenic fluids. If a Starship can survive those stresses on the ground, the assumption is that it will likely survive similar stresses in flight.
Assuming that Ship 25’s first several proof tests were successful, which they appear to have been, SpaceX returned the prototype to its Starbase factory to install six Raptor engines and a series of shields and firewalls that will protect those engines from each other. Once fully outfitted, Ship 25 will return to the launch site for static fire testing and take Ship 24’s place on Suborbital Pad B. Ship 24 took approximately two months to go from its last cryoproof to its first static fire. But its testing got off to a relatively rocky start, so Ship 25 could be ready sooner.
SpaceX could begin the next phases of Booster 7 and Ship 24 testing as early as November 10th or November 13th.
Energy
Taiwan power firm bets big on Tesla Megapacks as AI data center thirst grows
Taiwan’s Apollo Power orders 260 Tesla Megapacks, betting AI data centers will need more electricity.
A Taiwanese power company has ordered 260 Tesla Megapack 2XL units, roughly 1GWh of storage, betting that electricity rather than chips will decide how fast AI data centers come online. Apollo Power signed the contract with Tesla’s Taiwan energy arm on October 8, according to the company’s filing with the Taiwan stock exchange.
The filing says the units are meant for behind the meter storage and resilient grid projects, with delivery in batches from the end of 2027 and sites operating in 2028. Apollo and Tesla did not disclose a price, citing a confidentiality agreement. Apollo plans to pay for the equipment through a cash capital increase and bank financing, and it noted the purchase is not revenue and does not mean it holds firm orders from its partners.
Biggo reported that only about 33 units are under signed customer contracts, with roughly 150 more in negotiation. The same report put total project investment near NT$130 billion, but that figure includes installation work, with the equipment itself making up about 40 to 50 percent. In other words, a large share of this order is Apollo reserving supply ahead of demand. Apollo’s chairman told local media global large storage supply is tight, which is why the company locked in the units early, according to Yahoo Taiwan Finance.
Apollo also launched an AI data center and grid resilience alliance with Phison, Gigabyte and Shihlin Electric. The pitch rests on a pilot at Phison’s Zhunan plant, where Apollo and Tesla Energy Taiwan installed grid forming Megapack 2XLs in June. Tesla Energy Taiwan general manager Sun Hsiao-Han said the project went from demo to 1GWh in four months, and that Tesla Energy has deployed more than 50GWh worldwide.
Taiwan’s cabinet has approved amendments that would require large energy users to install their own generation and storage, which gives enterprise storage a regulatory tailwind.
The deal fits a pattern Teslarati has tracked. Tesla’s Megablock targets 1GWh commissioned in 20 business days, a pitch aimed squarely at fast moving data center builds. Megapacks already back xAI’s Colossus in Memphis and a 400MW AI campus in Brazil. Sun Media adds that Megapack 2XL was named among the first products in Nvidia’s DSX Ready qualification for battery storage in AI factories.
Deliveries are more than a year away, so the real test is how much of that 260 unit order turns into signed customer contracts.
For a century, the car has asked the same thing of its owner, which is basically to pay attention. Even the best ride-hailing app like Uber or Lyft only moved the problem into someone else’s hands. You stopped driving, but you still sat in a stranger’s car, while half listening, and wondering whether to take a phone call in the car without being rude. The Cybercab has no wheel, no pedals and no driver. With Grok @bot now live inside it, it becomes something else entirely, and I think that matters more than the fleet count that everyone is tracking.
Grok @bot is an agent, not a voice assistant. A rider signs in once, and from then on can say what they need and watch it happen. Order dinner from a favorite restaurant. Fill the grocery cart. Move money, answer email, adjust a calendar, push a work project forward. Tesla engineer Yun-Ta Tsai confirmed it is enabled across every Cybercab and the rest of the Model Y fleet, and Tesla’s own pitch is that Full Self-Driving handles the commute while Grok handles the errands.
Think about what that does to a thirty minute ride. Uber sells you a trip, while Waymo sells you the same trip in a more private setting. Tesla is selling the thirty minutes themselves, returned to you with an assistant attached. Errands that used to eat a Saturday get done between pickup and drop off. The ride stops being dead time between two places and becomes a place of its own.
Tesla integrates Grok Bot into its vehicles for the ultimate personal assistant
Best of all, your Bots follow you into any Cybercab, and presumably your own Tesla, then logs you out automatically when you step out. Anyone can bolt a chatbot onto a screen, but much harder to own the vehicle, the autonomy stack and the assistant at once. It also quietly ties SpaceX’s Super Intelligence business to Tesla’s fleet, after Tesla converted its xAI stake into SpaceX equity. The relationship between those two companies is getting harder to describe as separate.
This is also where the hard questions start, because an agent that can spend your money in a vehicle other people also ride in needs some answers. How does it handle a voice it shouldn’t trust? What gets recorded, who can see it, and for how long? What happens when a rider leaves halfway through a task?
If Tesla gets those answers right, the scoreboard changes. We have been counting Cybercabs and wait times. The more telling number may be what riders accomplish per trip. That is data almost no one else will ever have, and it is the real reason to watch Grok @bot.
What do you think? Leave me a comment.
News
Why Elon Musk’s target date for buying an Optimus robot is harder than it sounds
Musk says China’s magnet export ban cost Optimus months, and robot hands remain shockingly hard.
Elon Musk says China’s export curbs on magnets used in electric motors set back Tesla’s Optimus program by two to three months, and that the robot’s hands remain the hardest part of the project. He made the comments Saturday during a live interview with Tesla Owners Silicon Valley at the X Takeover event at Giga Texas, in front of roughly 2,000 attendees. The Optimus discussion begins around the 49 minute mark of the stream.
On the hands, Musk was blunt and noted that a general purpose humanoid needs fine motor skills that are “incredibly difficult to get right. Shockingly difficult,” he said in the interview. He pointed to a problem he says no one has demonstrated yet: “One of the hardest things also generally is to do precision and force at the same time,” such as driving a small self tapping screw into wood. Touch sensors add another layer, since it is “actually kind of hard to get touch sensors that elastically deform and can handle high cycle life and it won’t just break after a few thousand cycles.”
He also took aim at rival robot videos. “Any complicated looking robot demo, it’s a canned demo. It’s not real,” Musk said, adding that real AI means showing a robot something it has never seen and watching it still cope, the way FSD handles a city it has never driven.
Musk expects the Optimus ramp to be slower than a new vehicle production ramp. “The initial part of that S curve of production ramp is going to be very slow at the beginning,” Musk said, partly because “unlike cars, there’s no pre existing supply chain for robot stuff.” That echoes his July reply on X that Optimus production “will be extremely slow at first, as everything is new.”
The magnet disclosure puts a number on a problem Musk first raised in 2025. He said China “prevented the export of magnets for use in electric motors” and that it “set back the Optimus program by like two or three months.” Then he added: “We had robots with no arms.” Tesla’s fix is to bring the supply chain home. “You’ve got to be able to make all the parts domestically,” he said. Teslarati reported in April 2025 that Musk tied the issue to permanent magnets in the arm actuators, where motors have to be as small as possible.
Tesla Optimus V3 hand and arm details revealed in new patents
Production is moving regardless, with a reported internal goal of more than 1,000 a week by the end of 2026. Teslarati recently covered how Tesla is certifying supply partners in China for Optimus parts, while the company’s hand design has been the subject of new patent filings.
Musk has said he wants Optimus available to the public by late 2027, though Tesla has not confirmed that date or published updated production figures.
Taiwan power firm bets big on Tesla Megapacks as AI data center thirst grows
Tesla Cybercab and Robotaxi’s real advantage won’t be the ride service
Why Elon Musk’s target date for buying an Optimus robot is harder than it sounds
The Pentagon taps Elon Musk to design the battlefield of the future
Tesla Roadster’s new patent preps white-knuckle speeds, keeping it grounded
