News
SpaceX’s Starlink launch debut to orbit dozens of satellites later this month
SpaceX President and COO Gwynne Shotwell has revealed that the company’s first dedicated Starlink launch is scheduled for May 15th and will involve “dozens” of satellites.
Corroborated by several sources, the actual number of Starlink satellites that will be aboard Falcon 9 is hard to believe given that it is a satellite constellation’s first quasi-operational launch. Suffice it to say, if all spacecraft reach orbit in good health, SpaceX will easily become the operator and owner of one of the top five largest commercial satellite constellations in the world with a single launch. Such an unprecedentedly ambitious first step suggests that the perceived practicality of SpaceX’s Starlink ambitions may need to be entirely reframed going forward.
From 0 to 100
In short, it’s hard to exaggerate just how much of a surprise it is to hear that SpaceX’s very first Starlink launch – aside from two prototypes launched in Feb. 2018 – will attempt to place “dozens” of satellites in orbit. Competitor OneWeb, for example, conducted its first launch in February 2019, placing just six satellites in orbit relative to planned future launches with 20-30. To go from 2(ish) to “dozens” in a single step will break all sorts of industry standards/traditions.
Despite the ~15 months that have passed since that first launch, SpaceX’s Starlink team has really only spent the last 6-9 months in a phase of serious mass-production buildup. As of now, the company has no dedicated satellite factory – space in Hawthorne, CA is far too constrained. Instead, the design, production, and assembly of Starlink satellites is being done in 3-4 separate buildings located throughout the Seattle/Redmond area.
SpaceX’s Starlink team has managed to transition almost silently from research and development to serious mass-production (i.e. dozens of satellites) in the space of about half a year. The dozens of spacecraft scheduled to launch on SpaceX’s first dedicated mission – likely weighing 200-300 kg (440-660 lb) each – have also managed to travel from Seattle to Cape Canaveral in the last few months and may now be just a few days away from fairing encapsulation.
To some extent, the first flight-ready batch of “dozens” of satellites are still partial prototypes, likely equivalent to the second round of flight testing mentioned by CEO Elon Musk last year. This group of spacecraft will have no inter-satellite laser (optical) links, a feature that would transform an orbiting Starlink constellation into a vast mesh network. According to FCC filings, the first 75 satellites will be of the partial-prototype variety, followed soon after by the first spacecraft with a more or less finalized design and a full complement of hardware.
If this is just step one…
Meanwhile, Shotwell – speaking at the Satellite 2019 conference – suggested that SpaceX could launch anywhere from two to six dedicated Starlink missions this year, depending on the performance of the first batch. Put a slightly different way, take the “dozens” of satellites she hinted at, multiply that number by 6, and you’ve arrived at the number of spacecraft she believes SpaceX is theoretically capable of producing and delivering in the next 7.5 months.
“Dozens” implies no less than two dozen or a bare minimum of 144 satellites potentially built and launched before the year is out. However, combined with a target orbit of 450 km (280 mi) and a planned drone ship booster recovery more than 620 km (385 mi) downrange, 36, 48, or 60 satellites seem far more likely. Tintin A/B – extremely rough, testbed-like prototypes – were about 400 kg (~900 lb) each.
As an example, SpaceX’s eight Iridium NEXT satellite launches had payloads of more than 10,000 kg (22,000 lb), were launched to an orbit around 630 km (390 mi), and required a upper stage coast and second burn on-orbit. Further, Iridium missions didn’t get the efficiency benefit that Starlink will by launching east along the Earth’s rotational axis. Despite all that, Falcon 9 Block 5 boosters were still able to land less than 250 km (155 mi) downrange after Iridium launches. Crew Dragon’s recent launch debut saw Falcon 9 place the >13,000 kg (28,700 lb) payload into a 200 km (125 mi) orbit with a drone ship landing less than 500 km (310 mi) downrange, much of which was margin to satisfy safety requirements.
Starlink-1’s target orbit is thus a third lower than Iridium NEXT, while its drone ship will be stationed more than 2.5 times further downrange. Combined, SpaceX’s first Starlink payload will likely weigh significantly more than ~13,000 kg and may end up being the heaviest payload the company has yet to launch.
Assuming a payload mass of ~14,000 kg (~31,000 lb) at launch, a worst-case scenario with ~400 kg spacecraft and a 2000 kg dispenser would translate to 30 Starlink satellites. Cut their mass to 300 kg and the dispenser to 1000 kg and that rises to ~45 satellites. Drop even further to 200 kg apiece and a single recoverable Falcon 9 launch could place >60 satellites in orbit.
Of course, this entirely ignores the elephant in the room: the usable volume of SpaceX’s standard Falcon payload fairing. It’s unclear how SpaceX would fit 24 – let alone 60 – high-performance satellites into said fairing without severely constraining their design and capabilities. SpaceX’s solution to this problem will effectively remain unanswered until launch, assuming the company is willing to provide some sort of press release and/or offer a live view of spacecraft deployment on their webcast. Given the cutthroat nature of competition with the likes of OneWeb, Telesat, LeoSat, and others, this is not guaranteed.
At the end of the day, such a major leap into action bodes extremely well for SpaceX’s ability to realize its ambitious Starlink constellation, and do so fast. For those on Earth without reliable internet access or any access at all, the faster Starlink – and competing constellations, for that matter – can be realized, the sooner all of humanity can enjoy the many benefits connectivity can bring. For those that sit under the thumb of monopolistic conglomerates like Comcast and Time Warner Cable, relief will be no less welcome.
Stay tuned as we get closer to Starlink-1’s May 15th launch date. Up next is a static fire of the mission’s Falcon 9 rocket, perhaps just two or three days from now.
Check out Teslarati’s Marketplace! We offer Tesla accessories, including for the Tesla Cybertruck and Tesla Model 3.
Tesla has scaled back driver monitoring to be less naggy with the latest version of the Full Self-Driving (Supervised) suite, which is version 14.3.3.
The latest version is already earning praise from owners, who are reporting that the suite is far less invasive when it comes to keeping drivers from taking their eyes off the road. The first to mention it was notable Tesla community member on X known as Zack, or BLKMDL3.
14.3.3 nags less too https://t.co/IuiWzuYO6O
— Elon Musk (@elonmusk) May 18, 2026
Musk confirmed that v14.3.3 was made to nag drivers significantly less, something that Tesla has worked toward in the past and has said with previous versions that it is less likely to push drivers to look ahead, at least after looking away for a few seconds.
This refinement aligns with Tesla’s ongoing push toward unsupervised FSD. The update also brings faster Actual Smart Summon (now up to 8 mph), reliable “Hey Grok” voice commands, richer visualizations, smoother Mad Max acceleration, and an intervention streak counter that rewards consistent use. Reviewers describe the drive as more human-like and confident, with fewer twitches or unnecessary maneuvers.
Musk has repeatedly signaled this direction. In late 2025, he stated that FSD would allow phone use “depending on context of surrounding traffic,” noting safety data would justify relaxing rules so drivers could text in low-risk scenarios like stop-and-go traffic.
We tested this, and even still, the cell phone monitoring really seems to be less active in terms of alerting drivers:
Tesla Full Self-Driving v14.2.1 texting and driving: we tested it
Earlier, ahead of v14, Musk promised the system would “nag the driver much less” once safety metrics improved.
In 2023, he confirmed the steering wheel torque nag would be “gradually reduced, proportionate to improved safety,” shifting reliance to the cabin camera. Subsequent updates like v13.2.9 and v12.4 further loosened monitoring, cracking down on workarounds while easing legitimate distractions.
These steps reflect Tesla’s data-driven approach: FSD’s safety record—reportedly averaging millions of miles per crash—now outpaces human drivers in many scenarios, giving the company confidence to dial back interventions. Reduced nags improve usability and trust, encouraging more drivers to rely on the system rather than disengaging out of frustration.
However, there are certainly still some concerns. In many states, it is illegal to handle a cell phone in any way, requiring the use of hands-free devices. In Pennsylvania, it is illegal to use your cell phone at stop lights, which is definitely a step further than using it while the car is actively in motion.
v14.3.3 represents tangible progress. Making FSD less adversarial and more seamless is definitely a step forward, but drivers need to be aware of the dangers of distracted driving. FSD is extremely capable, but it is in no way fully autonomous, nor does its performance warrant owners to take their attention off the road.
Tesla has officially expanded its Full Self-Driving (FSD) suite in Europe once again, as it will now be offered to customer vehicles in Lithuania, marking a significant milestone as the second European Union country to offer the system.
Tesla confirmed FSD’s rollout in Lithuania this morning:
FSD Supervised now rolling out to Teslas in Lithuania 🇱🇹!
Making European roads safer, one by one pic.twitter.com/Uuj0bNG7pP
— Tesla Europe, Middle East & Africa (@teslaeurope) May 20, 2026
Tesla showed several clips of Full Self-Driving navigation in Lithuania to mark the announcement, while Lithuanian Transport Minister Juras Taminskas highlighted the system’s potential to assist with lane-keeping, speed adjustment, and traffic tasks on longer drives, while emphasizing that drivers must stay alert and ready to intervene.
Just a few weeks ago, Tesla officially entered Europe with Full Self-Driving in the Netherlands. The expansion of FSD on the continent is now officially underway.
Full Self-Driving’s European Journey
Europe has long posed one of the toughest regulatory challenges for Tesla’s autonomy ambitions due to stringent safety standards under the United Nations Economic Commission for Europe (UNECE) framework, particularly UN Regulation 171 for Driver Control Assistance Systems.
The Netherlands’ RDW authority granted the pioneering approval after over 18 months of rigorous testing, including 1.6 million kilometers on European roads and extensive data submissions.
This approval enables mutual recognition across the EU, allowing other member states to adopt it nationally without full re-testing. Lithuania quickly leveraged this mechanism, becoming the second adopter. Tesla positions FSD Supervised as a tool to incrementally improve road safety, with the company claiming it reduces incidents when used properly.
Bottlenecks slowing broader European deployment include fragmented national regulations, varying levels of regulatory skepticism, and requirements for robust driver monitoring. Some EU officials have raised concerns about performance in adverse conditions like icy roads or speeding scenarios, alongside frustrations over Tesla’s public advocacy approach.
Additional hurdles involve data privacy, liability frameworks, and the need for EU-wide harmonization. While countries like Belgium appear to be fast-tracking adoption, larger markets such as Germany, France, and Italy are expected to follow in the coming months, with potential EU-wide progress targeted for later in 2026.
Tesla Full Self-Driving Across the World
As of May, Full Self-Driving (Supervised) is available in approximately ten countries.
In North America, it has been live for years in the United States, Canada, Mexico, and Puerto Rico. Asia-Pacific additions include Australia, New Zealand, and South Korea, while China utilizes what Tesla calls “City Autopilot.” In Europe, the Netherlands and now Lithuania join the list, with more countries mulling the possibility of also approving FSD.
Tesla offers FSD via monthly subscriptions (around €99 in Europe) or one-time purchases (with deadlines approaching in many markets), shifting toward recurring revenue models. Today is the final day Europeans will be able to purchase the suite outright.
This expansion underscores Tesla’s push for global autonomy, starting with supervised and building toward greater capabilities. With Lithuania now online, momentum is building across Europe, though regulatory caution will continue shaping the pace. Owners in approved regions report smoother highway and urban driving, but the system remains Level 2, which requires human oversight.
Elon Musk
Tesla ditches India after years of broken promises
Tesla has ditched its plans to build a factory in India after years of failed negotiations.
Tesla’s long-running effort to establish a manufacturing presence in India is officially over. India’s Minister of Heavy Industries H.D. Kumaraswamy confirmed on May 19, 2026 that Tesla has informed authorities it will not proceed with a manufacturing facility in the country.
Tesla first signaled serious interest in India around 2021, when it began hiring local staff and lobbying the Indian government for lower import tariffs. The ask was straightforward: reduce duties enough for Tesla to test the market with imported vehicles before committing capital to a local factory. India’s position was equally firm, with an ask of Tesla to commit to manufacturing first, then receive tariff relief. Neither side moved, and the talks quietly collapsed.
Tesla to open first India experience center in Mumbai on July 15
India had offered a policy that would reduce import duties from 110% down to 15% on EVs priced above $35,000, provided companies committed at least $500 million toward local manufacturing investment within three years. Tesla declined to participate. The tariff standoff was only part of the problem. Analysts pointed to significant gaps in India’s local supply chain, inadequate industrial infrastructure, and a mismatch between Tesla’s premium pricing and the purchasing power of India’s automotive market as additional factors that made the investment difficult to justify.
First signs of an unraveling relationship came in April 2024, when Musk abruptly cancelled a planned trip to India where he was set to meet Prime Minister Modi and announce Tesla’s market entry. By July 2024, Fortune reported that Tesla executives had stopped contacting Indian government officials entirely. The government at that point understood Tesla had capital constraints and no plans to invest.
The more fundamental issue is that Tesla’s existing factories are currently operating at approximately 60% capacity, making a commitment to building new manufacturing capacity in a new market difficult to defend to investors. Tesla will continue selling imported Model Y vehicles through its existing showrooms in Mumbai, Delhi, Gurugram, and Bengaluru, but local production is no longer part of the plan.
Tesla scales back driver monitoring with latest Full Self-Driving release
Tesla Full Self-Driving expands in Europe, entering its second country
