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A stack of 60 Starlink v0.9 satellites are prepared for their orbital launch debut in May 2019. (SpaceX) A stack of 60 Starlink v0.9 satellites are prepared for their orbital launch debut in May 2019. (SpaceX)

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SpaceX planning four more Falcon 9-launched Starlink missions this year, permits show

An imposing stack of SpaceX's first 60 Starlink satellites is shown here prior to their inaugural launch. (SpaceX)

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According to a suite of eight FCC Special Temporary Authority licenses SpaceX filed for on August 30th, the company has plans for as many as four additional Starlink satellite launches in 2019, on top of Starlink’s May 23rd launch debut.

Additionally, SpaceX simultaneously requested that the FCC modify its current Starlink application to permit a slight change in orbital characteristics that would drastically improve the broadband satellite constellation’s coverage in its early stages. Combined, SpaceX appears to be extremely confident about the status and near-future progress to be made by its prospective Starlink constellation, confidence presumably inspired by the performance of the first 60 “v0.9” satellites launched three months ago.

Beta-test hiccups

Over the last three months, 50 of the 60 Starlink satellites launched on May 23rd have made their way to their final ~550 km (340 mi) circular orbits. As observed by astronomer Jonathan McDowell and partially confirmed by SpaceX’s own official statements, the company remains in contact with and – more or less – in control of all but three of the 60 Starlink prototypes. SpaceX did confirm in late June that two functioning satellites were being intentionally deorbited to test procedures and performance, while another three satellites had partially failed and were to “passively deorbit”.

Based on the phrasing of SpaceX’s June 28th update, it’s ambiguous if communication and/or control has been completely lost with those three satellites. Additionally, five more satellites have remained paused partway between their ~440 km insertion orbits and ~550 km operational orbits, described two months ago as “going through checkouts prior to completing their orbit raise.” For unknown reasons, that orbit raise never happened. This leaves SpaceX with 57 of 60 satellites that have effectively ‘survived’ and are still under some form of control, while 50 (83%) of the satellites have successfully reached their nominal operational orbits and are performing as intended.

SpaceX continues to waffle between describing these first 60 satellites – internally known as “Starlink v0.9” – as a development test and the first operational Starlink launch. A ~17% failure rate for satellite orbit raising would be unacceptable for a finished product but, on a positive note, is actually quite impressive if one assumes that the 60 spacecraft are high-fidelity prototypes, not operational satellites.

Although each satellite is just a few square meters, they may be able to serve internet to thousands of people simultaneously. (SpaceX)

In short, there is a lot of room for improvement – particularly in the realm of short and long-term reliability – but the likely fact that “v0.9” signifies a sort of Starlink beta test means that SpaceX’s next Starlink launches will feature updated and bug-fixed hardware. In the realm of satellites, the practice of flying prototypes as early as possible and risking failures to learn from experience is exceedingly rare, but this behavior is entirely consistent with SpaceX’s preferred approach to rocket and spacecraft development.

300 satellites, 7 months

As mentioned above, SpaceX applied for four FCC STA licenses – effectively communications-related launch permits – on August 30th, all for Starlink missions with nominal No Earlier Than (NET) launch dates in 2019. It must be noted that it’s exceptionally rare for the starting dates of STAs to actually correlate with launch dates, but a best-case scenario typically sees a given launch occur within a handful of weeks of that date. STAs last six months, providing plenty of buffer for all but the most extreme launch delays.

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MissionDate (NET)
Starlink-1October 10th
Starlink-2October 25th
Starlink-3November 13th
Starlink-4December 8th

Of note, NASASpaceflight.com recently published Cape Canaveral Air Force Station (CCAFS) and Kennedy Space Center (KSC) planning dates for SpaceX’s next two Starlink missions, confirming that the company is planning for launches roughly one week after the dates on its newly-requested FCC STAs. Those official planning dates show two back-to-back Starlink launches no earlier than (NET) October 17th and November 4th.

A general overview of Starlink’s bus, payload stacking, and solar arrays. (SpaceX)

In a best-case scenario where SpaceX successfully manufactures, delivers, and prepares the satellites and readies the Falcon 9 rockets assigned to launch them, the company could complete four more Starlink launches between now and the New Year. Sticking to a three-week cadence hopefully set by Starlink-1 and Starlink-2, two more launches could follow around late-November and mid-December. Of course, as just the first few truly operational launches of more or less finalized “v1.0” Starlink satellites, delays from manufacturing through launch flows are probable and should be expected.

Even completing just one more 60-satellite launch of an updated Starlink design would be an impressive achievement, making SpaceX the first and only entity – country or company – to place more than 100 satellites in orbit in the first year of a satellite system’s launch activities. In a best-case scenario, four additional Starlink launches in 2019 would abruptly take SpaceX from two satellite prototypes to operating almost 300 satellites – unequivocally the largest constellation in the world – in no more than seven months.

SpaceX's first Starlink launch was also Falcon 9 booster B1049's third launch ever.(SpaceX/Teslarati)
SpaceX completed its first Starlink launch on May 23rd, flying B1049 for the third time. SpaceX’s next Starlink launch will very likely mark the first time a booster has flown four orbital-class missions. (SpaceX)

Serving customers sooner

According to SpaceX’s Starlink.com website, Starlink will be able to start serving customers at Northern US and southern Canadian latitudes after just six launches (360 satellites), with limited “global coverage of the populated world” available after 24 launches (1440 satellites). However, per an FCC license modification request published on August 30th, the same day as 8 launch STAs, the company believes it can dramatically expedite Starlink coverage (regardless of launch rate) with one relatively simple modification.

This modification would leave inclination (orbit angle relative to Earth’s rotational axis), orbital altitude, and the number of satellites and launches completely unchanged, modifying Starlink’s orbital planes instead. It’s an extreme simplification of the reality of orbital mechanics, but one can imagine orbital planes as roughly akin to lanes on a road. To increase their reach, SpaceX wants to deploy Starlink satellites to three separate planes each launch, ultimately tripling the number of ‘lanes’ (from 24 to 72) while cutting the number of satellites in each ‘lane’ by two-thirds (from 66 to 22). In this analogy, it is logically easier to build fewer ‘lanes’, referring – in this case – to the challenge it poses to the launch vehicle, satellites, or both. SpaceX would only be able to triple Starlink’s orbital ‘lanes’ by requiring the satellites to do the bulk of their own orbit raising, leaning heavily on the performance and reliability of their SpaceX-built electric (ion) propulsion.

According to SpaceX, this could as much as halve the number of launches needed to achieve a given level of Starlink coverage, meaning that SpaceX’s early constellation could reach its initial operational status up to twice as quickly. SpaceX believes that this updated orbital layout of Starlink’s 1584 low Earth orbit (LEO) satellites would also significantly improve coverage and capabilities for areas with high population density (i.e. big cities).

Whether or not the FCC sees fit to rapidly grant SpaceX’s modification request in the next ~8 weeks, SpaceX’s next Starlink launches will be a major step forward for the company’s nascent communications constellation.

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Eric Ralph is Teslarati's senior spaceflight reporter and has been covering the industry in some capacity for almost half a decade, largely spurred in 2016 by a trip to Mexico to watch Elon Musk reveal SpaceX's plans for Mars in person. Aside from spreading interest and excitement about spaceflight far and wide, his primary goal is to cover humanity's ongoing efforts to expand beyond Earth to the Moon, Mars, and elsewhere.

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Tesla intertwines FSD with in-house Insurance for attractive incentive

Every mile logged under FSD now carries a documented financial value—lower risk, lower cost—based on Tesla’s internal driving data rather than external crash statistics alone.

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tesla interior operating on full self driving
Credit: TESLARATI

Tesla intertwined its Full Self-Driving (Supervised) suite with its in-house Insurance initiative in an effort to offer an attractive incentive to drivers.

Tesla announced that its new Safety Score 3.0 will automatically have a perfect score of 100 with every mile driven with Full Self-Driving (Supervised) enabled.

The change is designed to boost customers’ average safety scores and deliver noticeably lower monthly premiums.

The move marks the clearest link yet between Tesla’s autonomous driving technology and its proprietary insurance product. Tesla Insurance already relies on real-time vehicle data—such as acceleration, braking, following distance, and speed—to calculate a Safety Score between 0 and 100. Higher scores have long translated into cheaper rates.

Under the previous system, however, even brief manual interventions could drag down the average, frustrating owners who rely heavily on FSD. Version 3.0 eliminates that penalty for supervised autonomous miles, effectively treating FSD-driven segments as the safest possible driving behavior.

The incentive is immediate and financial. Drivers who keep FSD engaged for the majority of their trips will see their overall score rise, potentially shaving hundreds of dollars off annual premiums.

Tesla framed the update as a direct response to customer feedback, many of whom had complained that the old scoring model punished the very behavior it was meant to encourage.

For now, the program applies only to new policies in six states: Indiana, Tennessee, Texas, Arizona, Virginia, and Illinois.

Existing policyholders are not yet included, a point that drew swift questions from the Tesla community. Many owners in other states, including California and Georgia, expressed hope that the benefit would expand nationwide soon.

The announcement arrives as Tesla continues to roll out FSD Supervised updates and push for regulatory approval of more advanced autonomy. By tying insurance savings directly to FSD usage, the company is putting its own actuarial weight behind the technology’s safety claims.

Every mile logged under FSD now carries a documented financial value—lower risk, lower cost—based on Tesla’s internal driving data rather than external crash statistics alone.

Tesla has not disclosed exact premium reductions or the full rollout timeline beyond the six launch states.

Still, the message is clear: the more drivers trust FSD Supervised, the more Tesla Insurance will reward them. In an era when legacy insurers remain cautious about autonomous tech, Tesla is betting that its own data will prove the safest miles are the ones driven hands-free.

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Elon Musk

Tesla finalizes AI5 chip design, Elon Musk makes bold claim on capability

The Tesla CEO’s words mark a strategic shift. Tesla has long emphasized software-hardware co-design, squeezing maximum performance from every transistor. Musk previously described AI5 as optimized for edge inference in both Robotaxi and Optimus.

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Credit: Elon Musk | X

Tesla has finalized its chip design for AI5, as Elon Musk confirmed today that the new chip has reached the tape-out stage, the final step before mass production.

But in a brief reply on X, Musk clarified Tesla’s AI hardware roadmap, essentially confirming that the new chip will not be utilized for being “enough to achieve much better than human safety for FSD.”

He said that AI4 is enough to do that.

Instead, the AI5 chip will be focused on Tesla’s big-time projects for the future: Optimus and supercomputer clusters.

Musk thanked TSMC and Samsung for production support, noting that AI5 could become “one of the most produced AI chips ever.” Yet, the key pivot came in his direct answer: vehicles no longer need the bleeding-edge silicon.

Existing AI4 hardware, which is already deployed in hundreds of thousands of HW4-equipped Teslas, delivers safety metrics superior to human drivers for Full Self-Driving. AI5 will instead accelerate Optimus robot development and massive Dojo-style training clusters.

The Tesla CEO’s words mark a strategic shift. Tesla has long emphasized software-hardware co-design, squeezing maximum performance from every transistor. Musk previously described AI5 as optimized for edge inference in both Robotaxi and Optimus.

Now, with AI4 proving sufficient, the company avoids costly retrofits across its fleet while redirecting next-generation compute toward higher-value applications: dexterous robots and exponential training scale.

But is it reasonable to assume AI4 enables unsupervised self-driving? Yes, but with important caveats.

On the hardware side, the claim is credible. Tesla’s FSD stack runs end-to-end neural networks trained on billions of miles of real-world data. Internal safety data reportedly shows AI4-equipped vehicles already outperforming average human drivers by a significant margin in controlled metrics (collision avoidance, reaction time, edge-case handling).

Dual-redundant AI4 chips provide ample headroom for the driving task, leaving bandwidth for future model improvements without new silicon. Musk’s assertion aligns with Tesla’s pattern of over-provisioning compute early, then optimizing ruthlessly, exactly as HW3 once sufficed before HW4 scaled further.

Unsupervised autonomy, meaning Level 4 or higher, is not solely a compute problem. Regulatory approval remains the primary gate.

Even if AI4 achieves “much better than human” safety statistically, agencies like the NHTSA demand exhaustive validation, liability frameworks, and public trust.

Tesla’s supervised FSD has shown rapid gains in recent versions, yet real-world edge cases, like construction zones, emergency vehicles, and adverse weather, still require driver intervention in many jurisdictions. Competitors like Waymo operate limited unsupervised fleets, but only in geofenced areas with extensive mapping. Tesla’s vision-only, fleet-scale approach is more ambitious—and harder to certify globally.

In short, Musk’s post is both pragmatic and bullish. AI4 is likely capable of unsupervised FSD from a technical standpoint. Whether regulators and consumers agree, and how quickly, will determine if Tesla’s bet pays off.

The company’s capital-efficient path keeps existing cars relevant while pouring future compute into robots. If the safety data holds, unsupervised autonomy could arrive sooner than many expect.

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Elon Musk signals expansion of Tesla’s unique side business

Long envisioning the Tesla Diner as more than a charging stop, Musk has clearly adopted the idea that the Supercharger and Restaurant combo is a good thing for the company to have. It’s a blend of classic American drive-in culture with futuristic Tesla flair, complete with a 1950s-inspired design, movie screens, and on-site dining.

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tesla diner
Credit: Tesla

Elon Musk has signaled an expansion of Tesla’s unique side business, something that really has nothing to do with cars or spaceships, but fans of the company have truly adopted it as just another one of its awesome ventures.

Musk confirmed on Wednesday that Tesla would build a new Diner location in Palo Alto, Northern California. After hinting last October that it “probably makes sense to open one near our Giga Texas HQ in Austin and engineering HQ in Palo Alto,” it seems one of those locations is being set into motion.

Long envisioning the Tesla Diner as more than a charging stop, Musk has clearly adopted the idea that the Supercharger and Restaurant combo is a good thing for the company to have. It’s a blend of classic American drive-in culture with futuristic Tesla flair, complete with a 1950s-inspired design, movie screens, and on-site dining.

He first floated broader expansion plans shortly after the LA opening in July 2025, noting that if the prototype succeeded, Tesla would roll out similar venues in major cities worldwide and along long-distance Supercharger routes.

Earlier hints included a confirmed second site at Starbase in Texas, tied to SpaceX operations, underscoring the Diner’s role in enhancing Tesla’s ecosystem behind vehicles.

The Los Angeles location on Santa Monica Boulevard in West Hollywood has served as a high-profile test case. Opened in July 2025 at 7001 Santa Monica Blvd., it features the world’s largest urban Supercharging station with 80 V4 stalls open to all NACS-compatible EVs, over 250 dining seats, rooftop views, and 24/7 service.

The retro-futuristic building replaced a former Shakey’s and quickly became a destination. Tesla reported selling 50,000 burgers in the first 72 days—an average of over 700 daily—drawing crowds with Cybertruck-shaped packaging, breakfast extensions until 2 p.m., and movie screenings.

Palo Alto stands out as a logical next step for several reasons. As Tesla’s longstanding engineering headquarters in the heart of Silicon Valley, the city is home to thousands of Tesla employees, engineers, and executives who could benefit from a convenient, branded gathering spot.

The area boasts high EV adoption rates, dense tech talent, and heavy traffic along key corridors, making a large Supercharger-diner an ideal fit for both daily commuters and long-haul travelers.

Proximity to Stanford University and the innovation ecosystem would amplify its appeal, potentially serving as a showcase for Tesla’s vision of integrated mobility and lifestyle experiences. It could be a great way for Tesla to recruit new talent from one of the country’s best universities.

If Tesla and Musk decide to move forward with a Palo Alto diner, it would build directly on the LA prototype’s momentum while addressing Musk’s earlier calls for expansion near core Tesla hubs.

Whether it materializes as a full confirmation or evolves from these hints remains to be seen, but the pattern is clear: Tesla is testing ways to make charging stops memorable. For EV drivers and enthusiasts alike, a Silicon Valley outpost could blend cutting-edge tech with nostalgic comfort, further embedding Tesla into everyday culture. As Musk’s comments suggest, the future of the Diner looks promising.

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