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SpaceX debuts Starship’s new Super Heavy booster design
Speaking on Saturday night (Sept. 28th) at the base of the SpaceX’s Starship Mk1 prototype in Boca Chica, Texas, CEO Elon Musk delivered an update on the progress the company is making with Starship and its Super Heavy booster, including the first renders of the massive first stage’s new steel design.
In the 2019 design update Musk stated that the booster will match Starship in diameter at 9m (~29.5ft) and will feature a multi-engine design, colossal grid fins, and six landing legs. Super Heavy will stand 68m (223 ft) tall and weigh up to 3300 tons when fully loaded with liquid oxygen and methane propellant.
While Super Heavy is designed to support up to 37 Raptor engines, it is meant to be reconfigurable and ideally will only require 24 – 31 Raptor engines. According to Musk, the booster is actually designed to add or subtract engines as necessary based on payload demands and launching conditions, while also adding the benefit of massive redundancy in the event of mid-flight engine failure(s).
The most critical component for the booster, according to Musk, is that there is “a lot of force pushing up.” He states that to launch Starship, the Super Heavy booster would ideally produce roughly 7500 tons of thrust – about twice the thrust of that of a Saturn V rocket. For a reusable rocket design – such as with the Super Heavy booster – a high thrust to weight ratio (about 1.5 : 1) is a necessity for efficient operation.
Additionally, Musk briefly spotlighted other design adjustments including a change in grid fin design and the configuration of the landing legs. Many of the principles that have been flight-proven with Falcon 9 boosters – such as the use of grid fins and landing legs – will be carried over and scaled up with the Super Heavy booster.
Currently, the titanium grid fins used Falcon 9/Heavy boosters are square, whereas Super Heavy – requiring far larger control surfaces – will instead feature diamond-shaped grid fins that Musk said “works better.”
As seen in the animation of the Super Heavy – Starship launch, the booster is expected to perform a flip after first stage separation to return back to land at (or close to) the launch site, just like a Falcon 9. Musk explains that the aerodynamic shrouds covering the booster’s landing legs will serve no functional, lift-producing purpose. However, unlike Falcon 9 landing legs that retract only moments before touchdown, Super Heavy’s landing legs will be fixed, aside from – perhaps – some mild shock absorption capabilities.
Musk seems confident that both Super Heavy and Starship will begin operation to support orbital flights relatively soon. The Super Heavy booster will support Starship launches from pads in Boca Chica, Texas and at Cape Canaveral, Florida’s Launch Complex 39A as early as six months from now. The Starship Mk1 prototype is expected to begin an aggressive flight-test campaign to altitudes of at least 20km (65,000ft) within the next 1-2 months, according to Musk.
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Tesla seeks approval to test FSD Supervised in new Swedish city
Tesla has applied to conduct local Full Self-Driving (Supervised) testing in the city of Jönköping, Sweden.
Tesla has applied to conduct local Full Self-Driving (Supervised) testing in the city of Jönköping, Sweden.
As per local outlet Jönköpings-Posten, Tesla has contacted the municipality with a request to begin FSD (Supervised) tests in the city. The company has already received approval to test its Full Self-Driving (Supervised) software in several Swedish municipalities, as well as on the national road network.
Sofia Bennerstål, Tesla’s Head of Public Policy for Northern Europe, confirmed that an application has been submitted for FSD’s potential tests in Jönköping.
“I can confirm that we have submitted an application, but I cannot say much more about it,” Bennerstål told the news outlet. She also stated that Tesla is “satisfied with the tests” in the region so far.
The planned tests in Jönköping would involve a limited number of Tesla-owned vehicles. Trained Tesla safety drivers would remain behind the wheel and be prepared to intervene if necessary.
Tesla previously began testing in Nacka municipality after receiving local approval. At the time, the company stated that cooperation between authorities, municipalities, and industry enables technological progress and helps integrate future transport systems into real-world traffic conditions, as noted in an Allt Om Elbil report.
If approved, Jönköping would become the latest Swedish municipality to allow local Full Self-Driving (Supervised) testing.
Tesla’s Swedish testing program is part of the company’s efforts to validate its supervised autonomous driving software in everyday traffic environments. Municipal approvals allow Tesla to gather data in urban settings that include roundabouts, complex intersections, and mixed traffic conditions.
Sweden has become an increasingly active testing ground for Tesla’s driver-assistance software in Europe, with regulatory coordination between local authorities and national agencies enabling structured pilot programs.
Elon Musk
Microsoft partners with Starlink to expand rural internet access worldwide
The update was shared ahead of Mobile World Congress.
Microsoft has announced a new collaboration with Starlink as part of its expanding digital access strategy, following the company’s claim that it has extended internet connectivity coverage to more than 299 million people worldwide.
The update was shared ahead of Mobile World Congress, where Microsoft detailed how it surpassed its original goal of bringing internet access to 250 million people by the end of 2025.
In a blog post, Microsoft confirmed that it is now working with Starlink to expand connectivity in rural and hard-to-reach regions.
“Through our collaboration with Starlink, Microsoft is combining low-Earth orbit satellite connectivity with community-based deployment models and local ecosystem partnerships,” the company wrote.
The partnership is designed to complement Microsoft’s existing work with local internet providers and infrastructure companies across Africa, Latin America, and India, among other areas. Microsoft noted that traditional infrastructure alone cannot meet demand in some regions, making low-Earth orbit satellite connectivity an important addition.
Kenya was cited as an early example. Working with Starlink and local provider Mawingu Networks, Microsoft is supporting connectivity for 450 community hubs in rural and underserved areas. These hubs include farmer cooperatives, aggregation centers, and digital access facilities intended to support agricultural productivity and AI-enabled services.
Microsoft stated that 2.2 billion people globally remain offline, and that connectivity gaps risk widening as AI adoption accelerates.
Starlink’s expanding constellation, now numbering more than 9,700 satellites in orbit, provides near-global coverage, making it one of the few systems capable of delivering broadband to remote regions without relying on terrestrial infrastructure.
Starlink is expected to grow even more in the coming years as well, especially as SpaceX transitions its fleet to Starship, which is capable of carrying significantly larger payloads compared to its current workhorse, the Falcon 9.
Elon Musk
Tesla expands US LFP battery supply with LG Energy Solution deal: report
The report was initially published by TheElec, citing industry sources.
LG Energy Solution (LGES) will manufacture lithium iron phosphate (LFP) energy storage system (ESS) batteries for Tesla at its Lansing, Michigan facility.
The report was initially published by TheElec, citing industry sources.
LG Energy Solution’s Lansing plant, formerly known as Ultium Cells 3, was previously operated as a joint venture with General Motors. LGES acquired GM’s stake in May 2025 and now fully owns the site. With a production capacity of 50 GWh per year, it is one of the company’s largest facilities in North America.
LG Energy Solution is converting part of the Lansing factory to produce LFP batteries for energy storage systems. Equipment orders for the new lines have already been placed, and mass production is reportedly expected to begin in the second half of next year.
Last July, LG Energy Solution disclosed a 5.94 trillion won battery supply agreement running from August 2027 to July 2030. While the company did not name the customer, industry sources pointed to Tesla as the buyer.
Tesla has primarily used CATL’s prismatic batteries for its Megapack systems. The move to source prismatic LFP cells from LG Energy Solution’s U.S. plant could then be seen as part of Tesla’s efforts to bolster its North American supply base for its energy storage business.
For the Lansing conversion, LG Energy Solution reportedly plans to use electrode equipment originally ordered under its Ultium Cells venture with General Motors. Suppliers reportedly include CIS and Hirano Tecseed for electrode systems, TSI for mixing equipment, CK Solution for heat exhaust systems, A-Pro for formation equipment, and Shinjin Mtech for assembly kits.
Tesla currently manufactures energy storage products at facilities in California and Shanghai, though another Megafactory that produces the Megapack is also expected to be built in Texas. As per recent reports, the Texas Megafactory recently advanced with a major property sale.
Tesla seeks approval to test FSD Supervised in new Swedish city
Microsoft partners with Starlink to expand rural internet access worldwide
