News
SpaceX Starlink job posting signals serious interest in a growing multi-billion dollar market
A new SpaceX Starlink job posting hints that the company is very interested in an established multi-billion dollar market for high-quality satellite internet – a use-case its Starlink constellation should be a perfect fit for.
One of the biggest sources for a recent boom in global demand for satellite broadband services, in-flight connectivity (IFC) is a rapidly growing market well on its way to multi-billion dollar annual revenues within the next few years. Almost anyone with any experience traveling by air is likely familiar with the promises and pitfalls offered by in-flight WiFi, which can often feel extremely convenient and futuristic while still bringing up old memories of DSL internet and flip-phones. Arguably, most – if not all – of the downsides of modern in-flight connectivity and the patchwork addition of onboard servers carrying limited offline entertainment options are caused by technical limitations in the existing IFC ‘pipeline’.
Meanwhile, SpaceX is just a few months into the years-long process of manufacturing and launching a vast constellation of thousands of Starlink internet satellites, designed to blanket every inch of the Earth with high-quality internet service. With internal goals stretching as high as ~40,000 satellites, Starlink could one day offer enough bandwidth to singlehandedly satisfy the internet needs of hundreds of millions – if not billions – of customers worldwide. In the interim, however, how and where SpaceX chooses to commercially deploy its nascent constellation will be critical in its first few years of operations, and in-flight connectivity is one such place where Starlink could theoretically crush existing options and come to dominate the growing market.
A few days ago, SpaceX published its first job posting exclusively dedicated to “aeronautical terminals”, referring to a type of Starlink user terminals (an antenna and associated hardware) optimized for installation on aircraft fuselages. Thanks to an almost $29 million Starlink contract awarded by the US Air Force Research Laboratory (AFRL) contract in 2018, SpaceX has already built and successfully tested aeronautical terminal prototypes on military aircraft, with even more ambitious tests soon to come. As such, it would be reasonable to assume than a new job posting for such terminals would be focused on SpaceX’s military work.
Instead, SpaceX’s February 21st listing explicitly refers to the new position as an opportunity to “[certify] Starlink aeronautical terminals [for] commercial and business jet aircraft…[and] play a critical role in deploying an industry-changing In-Flight Communications (IFC) service”, unequivocally confirming the company’s interest in entering the broader IFC market.
While SpaceX has already launched an incredible 240 Starlink v1.0 satellites in the last two months alone, the company has yet to reveal any specific information about the user terminals customers will use to connect to the orbiting network. Earlier this year, CEO Elon Musk did briefly mention that the terminal would look like a “thin, flat, round UFO on a stick”, while COO and President Gwynne Shotwell stated last year that the terminal would be “beautiful” at Musk’s request. Aside from those comments and a few even older ones, the no-less-critical Starlink component remains a bit of a mystery, although we do know that SpaceX intends to mass produce millions of the devices itself.
Still, SpaceX has made it clear that it’s already testing terminals with some success, noting late last year that it managed to deliver bandwidth of ~610 megabits per second (Mbps) to a US military aircraft through a single flight-optimized terminal. That testing was performed with 60 ‘v0.9’ satellites, meaning that all Starlink satellites launched after May 2019 should be able to offer even more bandwidth thanks to the addition of higher-capacity ‘Ka-band’ antennas.
While much is still unknown, the available details paint a fascinating picture of Starlink’s potential in the IFC market. Driven by unprecedentedly ambitious and strict cost targets, SpaceX already builds, owns, and operates its own Falcon rockets, Starlink satellites, and (soon) Starlink terminals – including variants optimized for consumer, aeronautical, and ground station use. In short, SpaceX is building the most vertically-integrated space-based service in the history of commercial space.
What can effectively be considered a very early pre-alpha of the Starlink satellites, terminals, and network has already demonstrated the ability to deliver bandwidth of more than 600 Mbps to a single in-flight aircraft, at least five times better than the best solutions currently available (~100 Mbps). Thanks to their location in low Earth orbit (LEO), Starlink satellites will also be able to offer latency (the gap between when you click and when something happens) as good as or better than what most people have access to on the ground.
By building and owning every critical aspect of the complex pipeline needed for its Starlink network, SpaceX has full control from start to finish. With Falcon 9 rockets and Starlink satellites, this has meant that SpaceX can reach cost targets that are up to several times cheaper than competing solutions and do so while meeting or beating their technical capabilities. With in-flight connectivity, the rockets, satellites, terminals, and ground infrastructure needed to create a functional network all factor heavily into the prices that can be offered to end-users and as of 2020, there simply isn’t an IFC provider on Earth in a position to compete with the level of vertical integration SpaceX may be able to offer.
If SpaceX can launch several thousand satellites and figure out how to affordably mass-produce unprecedentedly high-performance terminals (still up for debate), it’s safe to say that Starlink is going to run through existing IFC providers like a brick wall. Aside from potentially beating them on cost, Starlink – offering perhaps 600-1000+ Mbps per plane – could theoretically allow 100-200 airline passengers to simultaneously stream videos, browse the web, and even game in flight as if they were on the ground. Existing providers are physically incapable of competing with something like that without extensive infrastructure upgrades.
According to Satellite Markets & Research, the annual revenue of passenger aircraft IFC broke $1 billion for the first time in 2018 and the overall market is expected to be worth at least $36 billion (~$3.5B/year) from 2019 to 2029. Major provider Inmarsat estimates that the IFC market could be worth up to $15 billion annually by 2035. With a bit of luck, SpaceX could easily secure a major portion of that pot within just a handful of years.
Check out Teslarati’s Marketplace! We offer Tesla accessories, including for the Tesla Cybertruck and Tesla Model 3.
Tesla has expanded the footprint of a massive safety feature worldwide with a recent Software Update labeled as 2026.20.6. The expansion of the “Blind Spot Warning While Parked” feature represents the more widespread availability of the feature, which aims to prevent “dooring.”
Dooring is when a driver or passenger opens a car door into the path of an oncoming road user, usually a cyclist or motorcyclist. It is among the most common types of cycling accidents, the League of American Bicyclists says.
For this reason, Tesla created a feature that warns occupants not to open the door because an object is approaching. The feature will sound a chime, and it will also delay the opening of the door to prevent an incident.
The release notes state (via Not a Tesla App):
“If you attempt to open a door while an approaching object is detected in your blind spot (for example, a bicyclist approaching from behind) a chime sounds, and your door will not open upon initial button press. Wait a short time and press the button a second time to override the warning.”
Tesla initially rolled out this feature back in 2024 with the Model 3 “Highland.” However, it remained with the Model 3 exclusively for over a year; that was until Tesla added it to the Cybertruck this past Spring.
Now, it is making its way to the new Model Y, 2021 and newer Model S, and 2021 or newer Model X.
The prevention of dooring incidents could eliminate many injuries to cyclists, especially in an urban setting. Dooring accounts for 10-20 percent of bike-related crashes in major cities, and over 17,000 dooring-related incidents were treated in the U.S. over the course of a decade. These usually involve fractures, contusions, and head trauma.
Tesla confirmed this morning that it has sent the first production units, manufactured with no steering wheel or pedals, to on-road testing in Austin, sharing video of the first rides with no human controls.
The lack of steering wheels and pedals in the Cybercab aligns with Tesla’s self-certification of Robotaxi as Level 4 SAE, a platform it plans to make widespread through internal vehicles and customer-owned cars that will operate and generate revenue for individuals.
The start of these engineering tests is a major signal for Tesla, which plans to bring driverless, wheel-less, and pedal-less Cybercabs to market in the coming months. With production already well underway at Gigafactory Texas, where the Cybercab is built, there is some inclination to believe the first public rides could happen sooner rather than later.
Engineering tests of the first production Cybercab have begun in Austin pic.twitter.com/fk3KQvcE8a
— Tesla (@Tesla) June 30, 2026
Tesla’s engineering tests will put the Cybercab in real-world scenarios, testing not only the hardware, but more importantly, the software that drives the car around Austin with nobody supervising it within the car.
This is perhaps the biggest part of the internal testing process, especially prior to allowing regular, everyday people to hail the Cybercab for an autonomous ride. These early rides serve as a true benchmark for Tesla: How many rides can it achieve safely? How many miles did it travel consecutively without needing an intervention? What scenarios challenge the Full Self-Driving suite the most?
The proper precautions have already been put into place as well, as Tesla released the First Responders Guide to Cybercab over the weekend, ensuring that emergency services have 24/7 access to Robotaxi Assistance, as well as other boundaries, such as Geofencing features that can be used to redirect autonomous vehicle traffic due to accidents, road closures, construction, or maintenance.
Cybercab seems genuinely close to being added to the Robotaxi fleet in Austin, but Tesla has prioritized safety throughout this entire process. Therefore, we think it could be months before it truly starts giving rides to the public. People have been frustrated with this, but Robotaxi in Austin has a tremendous safety record so far, so the slow rollout has kept people safe and accidents to a minimum.
The most important thing is that Tesla continues to show consistent progress in the Cybercab’s ramp-up toward fleet addition. A few weeks back, we saw the EPA reward the Cybercab a Certificate of Conformity, allowing it to enter the stream of commerce. Then, we saw Tesla add decals, signaling that it was likely about to start testing it publicly. That has now happened.
The next big move will be the announcement of the first rides, so this Summer should be filled with anticipation.
For years, there have been images and videos across social media platforms that have reminded me of when I was a 15-year-old kid teased by “Xbox 720” videos on YouTube. These videos are of the supposed “Tesla Phone” that Elon Musk was secretly developing in between leading Tesla with its electric cars and SpaceX with its reusable rockets.
Would you buy a Tesla phone ? pic.twitter.com/aaTwvvIJit
— Tesla Owners Silicon Valley (@teslaownersSV) October 6, 2023
Although Musk has put those rumors to bed several times, it was never completely out of the realm that he could get involved in cell phones in some capacity. Think outside the box and more macro-level, though. Instead of reinventing the computer, Musk reinvented connectivity by developing Starlink with SpaceX.
It could be something similar, TD Cowen analyst Gregory Williams said in a note last week, where he hinted SpaceX could be gathering some steam to acquire T-Mobile.
Williams said it would be the “clear choice” for SpaceX if it decided to go through with a network acquisition. He also suggested AT&T.
The move would be possible through selling more of its own stock, which would help SpaceX raise the money to purchase T-Mobile, which would cost roughly $300 billion. It could be one of the moves SpaceX makes post-IPO in terms of an acquisition: it already acquired Cursor AI for $60 billion.
Other analysts, like Dan Ives of Wedbush, believe SpaceX and Tesla will eventually merge into one anyway, and that conglomeration could come as soon as this year, some have said.
The implications of SpaceX purchasing T-Mobile are massive. A combined entity would create a truly ubiquitous network: T-Mobile’s terrestrial 5G towers and Starlink’s growing constellation of Direct-to-Cell satellites. This would essentially eliminate dead zones across the U.S. and potentially globally.
SpaceX would instantly become a full-scale facilities-based carrier with satellite differentiation; a huge advantage. This would pressure AT&T and Verizon heavily.
There are also concerns like a potential reduction in long-term competition, and of course, a deal of that size would face intense scrutiny from government agencies.
The strategic fit is compelling due to the existing Starlink–T-Mobile partnership and complementary technologies (space + terrestrial). It could create a dominant integrated communications player. However, the regulatory, financial, and execution hurdles are enormous — this remains highly speculative with no indication SpaceX is actively pursuing it right now.
Tesla expands massive safety feature worldwide in latest update
Tesla sends production Cybercab with no steering wheel, pedals to on-road testing
