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SpaceX Starlink Gen2 constellation weakened by “partial” FCC grant
More than two and a half years after SpaceX began the process of securing regulatory approval for its next-generation Starlink constellation, the US Federal Communications Commission (FCC) has finally granted the company a license – but only after drastically decreasing its scope.
In May 2020, SpaceX filed its first FCC license application for Starlink Gen2, an upgraded constellation of 30,000 satellites. In the second half of 2021, SpaceX amended its Starlink Gen2 application to take full advantage of the company’s more powerful Starship rocket and further improve the constellation’s potential utility. Only in December 2021 did the FCC finally accept SpaceX’s Gen2 application for filing, kicking off the final review process.
On November 29th, 2022, the FCC completed that review and granted SpaceX permission to launch just 7,500 of the ~30,000 Starlink Gen2 satellites it had requested permission for more than 30 months prior. The FCC offered no explanation of how it arrived at its arbitrary 75% reduction, nor why the resulting number is slightly lower than a different 7,518-satellite Starlink Gen1 constellation SpaceX had already received a license to deploy in late 2018. Adding insult to injury, the FCC repeatedly acknowledges that “the total number of satellites SpaceX is authorized to deploy is not increased by our action today, and in fact is slightly reduced.”
The update that's rolling out to the fleet makes full use of the front and rear steering travel to minimize turning circle. In this case a reduction of 1.6 feet just over the air— Wes (@wmorrill3) April 16, 2024
That claimed reduction is thanks to the fact that shortly before this decision, SpaceX told the FCC in good faith that it would voluntarily avoid launching the dedicated V-band Starlink constellation it already received a license for in order “to significantly reduce the total number of satellites ultimately on orbit.” Instead, once Starlink Gen2 was approved, it would request permission to add V-band payloads to a subset of the 29,988 planned Gen2 satellites, achieving a similar result without the need for another 7,518 satellites.
In response, the FCC slashed the total number of Starlink Gen2 satellites permitted to less than the number of satellites approved by the FCC’s November 2018 Starlink V-band authorization; limited those satellites to middle-ground orbits, entirely precluding Gen2 launches to higher or lower orbits; and didn’t even structure its compromise in a way that would at least allow SpaceX to fully complete three Starlink Gen2 ‘shells.’ Worse, the FCC’s partial grant barely mentioned SpaceX’s detailed plans to use new E-band antennas on Starlink Gen2 satellites and next-generation ground stations, simply stating that it will “defer acting on” the request until “further review and coordination with Federal users.”

Throughout the partial grant, the FCC couches its decision to drastically downscale SpaceX’s Starlink Gen2 constellation in terms of needing more time “to evaluate the complex and novel issues on the record before [the Commission],” raising the question of what exactly the Commission was doing instead in the 30 months since SpaceX’s first Gen2 application and 15 months since its Gen2 modification. In comparison, SpaceX received a full license for its 7,518-satellite V-band constellation less than five months after applying. SpaceX’s 4,408-satellite Starlink Gen1 constellation – the first megaconstellation ever reviewed by the modern FCC – was licensed 16 months after its first application and eight months after a modified application was submitted.
Adding to the oddity of the unusual and inconsistent decision-making in this FCC ruling, the Commission openly acknowledges that the idea to grant SpaceX permission to launch a fraction of its Starlink Gen2 constellation came from Amazon’s Project Kuiper [PDF], a major prospective Starlink competitor. The FCC says it agreed with Amazon’s argument, stating that “the public interest would be served by taking this approach in order to permit monitoring of developments involving this large-scale deployment and permit additional consideration of issues unique to the other orbits SpaceX requests.”
The V-band Starlink constellation already approved by the FCC was for 7,518 satellites in very low Earth orbits (~340 km). In the first 4,425-satellite Starlink constellation licensed by the FCC, the Commission gave SpaceX permission to operate 2,814 satellites at orbits between 1100 and 1300 kilometers. Increasingly conscious of the consequences of space debris, which would last hundreds of years at 1000+ kilometers, SpaceX later requested permission in 2019 and 2020 to launch those 2,814 satellites to around 550 kilometers, where failed satellites would reenter in just five years. For unknown reasons, the FCC only fully approved the change two years later, in April 2021.
The “other orbits [requested by SpaceX]” that the FCC says create unique issues that demand “additional consideration” of Starlink Gen2 are for 19,400 satellites between 340 and 360 kilometers and 468 satellites between 604 and 614 kilometers. Starlink satellites are expected to be around four times heavier and feature a magnitude more surface area, but the fact remains that the FCC has already granted SpaceX permission to launch almost 3000 smaller satellites to orbits much higher than 604 kilometers and more than 7500 satellites to orbits lower than 360 kilometers. It’s thus hard not to conclude that the Commission’s claims that a partial license denial was warranted by “concerns about orbital debris and space safety,” and “issues unique to…other orbits” are incoherent at best.
Perhaps the strangest inclusion in the partial grant is a decision by the FCC to subject SpaceX to an arbitrary metric devised by another third-party, for-profit company LeoLabs. In a March 2022 letter, LeoLabs reportedly proposed that “SpaceX’s authorization to continue deploying satellites” be directly linked to an arbitrary metric measuring “the number of years each failed satellite remains in orbit, summed across all failed satellites.” The FCC apparently loved the suggestion and made it an explicit condition of its already harsh Starlink Gen2 authorization, even adopting the arbitrary limit of “100 object years” proposed by LeoLabs.
In other words, once the sum of the time required for all failed Starlink Gen2 satellites to naturally deorbit reaches 100 years, the FCC will force SpaceX to “cease satellite deployment” while it “[reviews] sources of satellite failure” and “determine[s] whether there are any adequate and reliable mitigation measures going forward.” The FCC acknowledges that the arbitrary 100-year limit means that the failure of just 20 Starlink satellites at operational orbits would force the company to halt launches. The Commission does not explain how it will decide when SpaceX can restart Starlink launches after a launch halt. SpaceX must simultaneously follow the FCC’s deployment schedule, which could see the company’s license revoked if it doesn’t deploy 3,750 Starlink Gen2 satellites by November 2028 and all 7,500 satellites by November 2031.
Based on the unofficial observations of astrophysicist Jonathan McDowell, SpaceX currently has more 30 failed Starlink Gen1 satellites at or close to their operational altitudes of 500+ kilometers, meaning that SpaceX would almost certainly be forced to stop launching Gen1 satellites if this arbitrary new rule were applied to other constellations. The same is true for competitor OneWeb, which had a single satellite fail at around 1200 kilometers in 2021. At that altitude, it will likely take hundreds of “object years” to naturally deorbit, easily surpassing LeoLabs’ draconian 100-year limit.
In theory, the FCC does make it clear that it will consider changing those restrictions and allowing SpaceX to launch more of its proposed Starlink Gen2 constellation in the future. But the Commission has also repeatedly demonstrated to SpaceX that it will happily take years to modify existing licenses or approve new ones – not a particularly reassuring foundation for investments as large and precarious as megaconstellations.
Ultimately, short of shady handshake deals in back rooms, the FCC’s partial grant leaves SpaceX’s Starlink Gen2 constellation in an undesirable position. For the company to proceed under the current license, it could be forced to redesign its satellites and ground stations to avoid the E-band, or gamble by continuing to build and deploy satellites and ground stations with E-band antennas without a guarantee that it’ll ever be able to use that hardware. There is also no guarantee that the FCC will permit SpaceX to launch any of the ~22,500 satellites left on the table by the partial grant, which will drastically change the financial calculus that determines whether the constellation is economically viable and how expansive associated infrastructure needs to be.
Additionally, if SpaceX accepts the gambit and launches all 7,500 approved Gen2 satellites only for the FCC to fail to approve expansions, Starlink Gen2 would be stuck with zero polar coverage, significantly reducing the constellation’s overall utility. Starlink Gen2 likely represents an investment of at least $30-60 billion (assuming an unprecedentedly low $1-2M to build and launch each 50-150 Gbps satellite). With its partial license denial and the addition of several new and arbitrary conditions, the FCC is effectively forcing SpaceX to take an even riskier gamble with the billions of dollars of brand new infrastructure it will need to build to manufacture, launch, operate, and utilize its Starlink Gen2 constellation.
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Tesla Model 3 named New Zealand’s best passenger car of 2025
Tesla flipped the switch on Full Self-Driving (Supervised) in September, turning every Model 3 and Model Y into New Zealand’s most advanced production car overnight.
The refreshed Tesla Model 3 has won the DRIVEN Car Guide AA Insurance NZ Car of the Year 2025 award in the Passenger Car category, beating all traditional and electric rivals.
Judges praised the all-electric sedan’s driving dynamics, value-packed EV tech, and the game-changing addition of Full Self-Driving (Supervised) that went live in New Zealand this September.
Why the Model 3 clinched the crown
DRIVEN admitted they were late to the “Highland” party because the updated sedan arrived in New Zealand as a 2024 model, just before the new Model Y stole the headlines. Yet two things forced a re-evaluation this year.
First, experiencing the new Model Y reminded testers how many big upgrades originated in the Model 3, such as the smoother ride, quieter cabin, ventilated seats, rear touchscreen, and stalk-less minimalist interior. Second, and far more importantly, Tesla flipped the switch on Full Self-Driving (Supervised) in September, turning every Model 3 and Model Y into New Zealand’s most advanced production car overnight.
FSD changes everything for Kiwi buyers
The publication called the entry-level rear-wheel-drive version “good to drive and represents a lot of EV technology for the money,” but highlighted that FSD elevates it into another league. “Make no mistake, despite the ‘Supervised’ bit in the name that requires you to remain ready to take control, it’s autonomous and very capable in some surprisingly tricky scenarios,” the review stated.
At NZ$11,400, FSD is far from cheap, but Tesla also offers FSD (Supervised) on a $159 monthly subscription, making the tech accessible without the full upfront investment. That’s a game-changer, as it allows users to access the company’s most advanced system without forking over a huge amount of money.
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Tesla starts rolling out FSD V14.2.1 to AI4 vehicles including Cybertruck
FSD V14.2.1 was released just about a week after the initial FSD V14.2 update was rolled out.
It appears that the Tesla AI team burned the midnight oil, allowing them to release FSD V14.2.1 on Thanksgiving. The update has been reported by Tesla owners with AI4 vehicles, as well as Cybertruck owners.
For the Tesla AI team, at least, it appears that work really does not stop.
FSD V14.2.1
Initial posts about FSD V14.2.1 were shared by Tesla owners on social media platform X. As per the Tesla owners, V14.2.1 appears to be a point update that’s designed to polish the features and capacities that have been available in FSD V14. A look at the release notes for FSD V14.2.1, however, shows that an extra line has been added.
“Camera visibility can lead to increased attention monitoring sensitivity.”
Whether this could lead to more drivers being alerted to pay attention to the roads more remains to be seen. This would likely become evident as soon as the first batch of videos from Tesla owners who received V14.21 start sharing their first drive impressions of the update. Despite the update being released on Thanksgiving, it would not be surprising if first impressions videos of FSD V14.2.1 are shared today, just the same.
Rapid FSD releases
What is rather interesting and impressive is the fact that FSD V14.2.1 was released just about a week after the initial FSD V14.2 update was rolled out. This bodes well for Tesla’s FSD users, especially since CEO Elon Musk has stated in the past that the V14.2 series will be for “widespread use.”
FSD V14 has so far received numerous positive reviews from Tesla owners, with numerous drivers noting that the system now drives better than most human drivers because it is cautious, confident, and considerate at the same time. The only question now, really, is if the V14.2 series does make it to the company’s wide FSD fleet, which is still populated by numerous HW3 vehicles.
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Waymo rider data hints that Tesla’s Cybercab strategy might be the smartest, after all
These observations all but validate Tesla’s controversial two-seat Cybercab strategy, which has caught a lot of criticism since it was unveiled last year.
Toyota Connected Europe designer Karim Dia Toubajie has highlighted a particular trend that became evident in Waymo’s Q3 2025 occupancy stats. As it turned out, 90% of the trips taken by the driverless taxis carried two or fewer passengers.
These observations all but validate Tesla’s controversial two-seat Cybercab strategy, which has caught a lot of criticism since it was unveiled last year.
Toyota designer observes a trend
Karim Dia Toubajie, Lead Product Designer (Sustainable Mobility) at Toyota Connected Europe, analyzed Waymo’s latest California Public Utilities Commission filings and posted the results on LinkedIn this week.
“90% of robotaxi trips have 2 or less passengers, so why are we using 5-seater vehicles?” Toubajie asked. He continued: “90% of trips have 2 or less people, 75% of trips have 1 or less people.” He accompanied his comments with a graphic showing Waymo’s occupancy rates, which showed 71% of trips having one passenger, 15% of trips having two passengers, 6% of trips having three passengers, 5% of trips having zero passengers, and only 3% of trips having four passengers.
The data excludes operational trips like depot runs or charging, though Toubajie pointed out that most of the time, Waymo’s massive self-driving taxis are really just transporting 1 or 2 people, at times even no passengers at all. “This means that most of the time, the vehicle being used significantly outweighs the needs of the trip,” the Toyota designer wrote in his post.
Cybercab suddenly looks perfectly sized
Toubajie gave a nod to Tesla’s approach. “The Tesla Cybercab announced in 2024, is a 2-seater robotaxi with a 50kWh battery but I still believe this is on the larger side of what’s required for most trips,” he wrote.
With Waymo’s own numbers now proving 90% of demand fits two seats or fewer, the wheel-less, lidar-free Cybercab now looks like the smartest play in the room. The Cybercab is designed to be easy to produce, with CEO Elon Musk commenting that its product line would resemble a consumer electronics factory more than an automotive plant. This means that the Cybercab could saturate the roads quickly once it is deployed.
While the Cybercab will likely take the lion’s share of Tesla’s ride-hailing passengers, the Model 3 sedan and Model Y crossover would be perfect for the remaining 9% of riders who require larger vehicles. This should be easy to implement for Tesla, as the Model Y and Model 3 are both mass-market vehicles.
