SpaceX
SpaceX’s Starship prototype moved to launch pad on new rocket transporter
Over the last two or so weeks, SpaceX engineers and technicians have continued to make progress on the company’s first full-scale Starship prototype, intended to support experimental suborbital hop tests as early as March or April.
That work reached a peak on March 8th when the massive Starhopper was transported from build site to launch pad on a brand new transporter that was delivered and assembled barely 48 hours prior. Ahead of the suborbital prototype’s move, work has been ongoing to construct a replacement fairing for the partial-fidelity vehicle, although there is a chance that the new BFR-related stainless steel sections being assembled could be the start of the first orbital Starship prototype.
Required after improper planning destroyed Starship’s original nosecone (or fairing) when it broke free from its insufficient moorings during high coastal winds, the replacement has sprouted from sheets of metal into a far more substantial structure in barely two weeks. Designed as two integral parts of a suborbital Starship prototype, the upper section (i.e. fairing, nosecone, etc.) is predominately a passive aerodynamic structure with no major active functions, thankfully meaning that the first article’s accidental destruction was a relatively minor loss.
In fact, it’s entirely possible that the fairing’s demise has had a minimal impact on the commencement of hop tests, and may have even been a net-good for the program given some visible differences between Starship fairings #1 and #2. Despite the fact that the first fairing was destroyed in late January and a comment from CEO Elon Musk indicating that it would trigger a delay of a few weeks, SpaceX did not begin to assemble its replacement until February 21st, a full month later. Over the course of those 30 or so days, the company’s propulsion team simultaneously began hot-fire tests of the first full-scale Raptor engine, ramped thrust and chamber pressure from roughly 40 to 100 percent, and ultimately pushed the engine to the point of damage around the second week of February.
Work on the primary structure of the Starship prototype also proceeded apace, fleshing out the brute-force steel vehicle with the beginnings of serious avionics and plumbing and more or less completing the structure of its liquid oxygen and methane propellant tanks. SpaceX workers also rapidly expanded and built-out Starship’s prospective hop test launch pad just a few thousand feet distant, installing tank farms, piping, water deluge hardware, and building an actual concrete ‘pad’ with umbilical connection ports and attachment points for the ship’s three fin-legs.

Welding and assembly of the replacement nosecone began around February 21st, rapidly growing from a few sheets of steel to a nearly-complete barrel section measuring about 9m tall and 9m in diameter (30ft x 30ft). Intriguingly, the new fairing appears to be a significant departure from the structural composition of its predecessor, utilizing far thicker sheets of stainless steel joined by uninterrupted width and lengthwise welds. Compared to the first fairing’s dependence on extremely thin (nearly foil-like) steel sheets and a separate internal framework of metal bars, Starship fairing V2 appears to be easily capable of standing under its own weight and then some. While largely passive, it’s likely that once the structure is complete, some level of additional avionics (and perhaps cold or hot-gas maneuvering thrusters) will be installed inside.
Heres a close up of the launch site. pic.twitter.com/Q32SHjUH8F— RGVAerialPhotography (@RGVaerialphotos) March 4, 2019
U-Crawl
Keeping in the practice of dramatically lowering costs by prioritizing consumer off-the-shelf (COTS) hardware solutions wherever possible, SpaceX has purchased or leased a quartet of (likely used) crawlers for the purpose of transporting Starship between the company’s South Texas build, launch, and landing sites. Built by a European conglomerate known TII Group and owned by US-based Roll Group, SpaceX’s four crawlers – coupled to form a duo of larger crawlers – should be more than capable of transporting anywhere from 500t to 1000t or more, easily supporting Starhopper and/or Starships and Super Heavy boosters.

Rather than spending huge amounts of money to develop or contract out a custom-designed crawler or transporter solution for BFR, SpaceX appears to have simply purchased off-the-shelf hardware and affixed them with heavy steel structures capable of securing and supporting Starhopper during transport. Within 24 hours of the crawler arrivals, those beams were installed and the transporter had been moved underneath Starhopper and attached to it before quite literally jacking the massive ship off the ground, allowing technicians to weld additional structures to the tips of its three legs.

Last but not least…
Perhaps most curious of all, Starhopper’s replacement fairing was recently joined by the start of work on a separate barrel section that appears to be nearly identical. Assuming the presumed fairing is, in fact, a fairing-to-be, the combined height of the two barrel sections would already make it significantly taller than the original nosecone, and the beginning of the conical taper has yet to appear on either assembly. This could generally mean one of two things. First, the new fairing could make Starhopper much taller than its short-lived predecessor. Second, SpaceX could be planning to begin (or even complete) hop tests without a fairing, in which case the presumed fairing and its slightly younger twin could actually be the beginning of a higher-fidelity Starhopper or even the orbital Starship prototype hinted at by Musk earlier this year.
While far less likely than the first option, the latter alternative is further supported by the fact that visible work has begun on some sort of tapered or curved steel complements to the new sections in work. While they certainly could be the beginning of the fairing’s tapered cone, the latest segments only loosely resemble the start of a gradual curve. Instead, they look similar to the steel segments of several giant tank domes that were assembled, welded, and installed inside Starhopper last month.


On March 8th, SpaceX began the transport of its first full-scale Starship prototype at the same time as CEO Elon Musk indicated that the first flightworthy Raptor(s) would be delivered to South Texas and installed on the hop test article as early as next week (March 11-17). It’s now looking increasingly likely that any replacement fairing that may or may not be under construction might not be ready for installation on Starhopper before SpaceX begins integrated static-fire tests and maybe even low-altitude tethered hop tests.
“SpaceX will conduct checkouts of the newly installed ground systems and perform a short static fire test in the days ahead,” he said. “Although the prototype is designed to perform sub-orbital flights, or hops, powered by the SpaceX Raptor engine, the vehicle will be tethered during initial testing and hops will not be visible from offsite. SpaceX will establish a safety zone perimeter in coordination with local enforcement and signage will be in place to alert the community prior to the testing.” – James Gleeson, March 8th, SpaceX
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Elon Musk
SpaceX targets 150Mbps per user for upgraded Starlink Direct-to-Cell
If achieved, the 150Mbps goal would represent a significant jump from the current performance of Starlink Direct-to-Cell.
SpaceX is targeting peak download speeds of 150Mbps per user for its next-generation Direct-to-Cell Starlink service. The update was shared by SpaceX Spectrum & Regulatory Affairs Lead Udrivolf Pica during the International Telecommunication Union’s Space Connect conference.
“We are aiming at peak speeds of 150Mbps per user,” Pica said during the conference. “So something incredible if you think about the link budgets from space to the mobile phone.”
If achieved, the 150Mbps goal would represent a significant jump from the current performance of Starlink Direct-to-Cell.
Today, SpaceX’s cellular Starlink service, offered in partnership with T-Mobile under the T-Satellite brand, provides speeds of roughly 4Mbps per user. The service is designed primarily for texts, low-resolution video calls, and select apps in locations that traditionally have no cellular service.
By comparison, Ookla data shows median 5G download speeds of approximately 309Mbps for T-Mobile and 172Mbps for AT&T in the United States, as noted in a PCMag report. While 150Mbps would still trail the fastest terrestrial 5G networks, it would place satellite-to-phone broadband much closer to conventional carrier performance, even in remote areas.
Pica indicated that the upgraded system would support “video, voice, and data services, clearly,” moving beyond emergency connectivity and basic messaging use cases.
To reach that target, SpaceX plans to upgrade its existing Starlink Direct-to-Cell satellites and add significant new capacity. The company recently acquired access to radio spectrum from EchoStar, which Pica described as key to expanding throughput.
“More spectrum means a bigger pipeline, and this means that we can expand what we can do with partners. We can expand the quality of service. And again, we can do cellular broadband basically, cellular broadband use cases, like AI or daily connectivity needs,” he stated.
SpaceX has also requested regulatory approval to deploy 15,000 additional Direct-to-Cell satellites, beyond the roughly 650 currently supporting the system. The upgraded architecture is expected to begin rolling out in late 2027.
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
Elon Musk denies Starlink’s price cuts are due to Amazon Kuiper
“This has nothing to do with Kuiper, we’re just trying to make Starlink more affordable to a broader audience,” Musk wrote in a post on X.
Elon Musk has pushed back on claims that Starlink’s recent price reductions are tied to Amazon’s Kuiper project.
In a post on X, Musk responded directly to a report suggesting that Starlink was cutting prices and offering free hardware to partners ahead of a planned IPO and increased competition from Kuiper.
“This has nothing to do with Kuiper, we’re just trying to make Starlink more affordable to a broader audience,” Musk wrote in a post on X. “The lower the cost, the more Starlink can be used by people who don’t have much money, especially in the developing world.”
The speculation originated from a post summarizing a report from The Information, which ran with the headline “SpaceX’s Starlink Makes Land Grab as Amazon Threat Looms.” The report stated that SpaceX is aggressively cutting prices and giving free hardware to distribution partners, which was interpreted as a reaction to Amazon’s Kuiper’s upcoming rollout and possible IPO.
In a way, Musk’s comments could be quite accurate considering Starlink’s current scale. The constellation currently has more than 9,700 satellites in operation today, making it by far the largest satellite broadband network in operation. It has also managed to grow its user base to 10 million active customers across more than 150 countries worldwide.
Amazon’s Kuiper, by comparison, has launched approximately 211 satellites to date, as per data from SatelliteMap.Space, some of which were launched by SpaceX’s Falcon 9 rocket. Starlink surpassed that number in early January 2020, during the early buildout of its first-generation network.
Lower pricing also aligns with Starlink’s broader expansion strategy. SpaceX continues to deploy satellites at a rapid pace using Falcon 9, and future launches aboard Starship are expected to significantly accelerate the constellation’s growth. A larger network improves capacity and global coverage, which can support a broader customer base.
In that context, price reductions can be viewed as a way to match expanding supply with growing demand. Musk’s companies have historically used aggressive pricing strategies to drive adoption at scale, particularly when vertical integration allows costs to decline over time.