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Falcon 9 B1047 seen aboard SpaceX drone ship Of Course I Still Love You. (SpaceX) Falcon 9 B1047 seen aboard SpaceX drone ship Of Course I Still Love You. (SpaceX)

SpaceX

SpaceX’s first dedicated Starlink launch announced as mass production begins

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SpaceX has announced a launch target of May 2019 for the first batch of operational Starlink satellites in a sign that the proposed internet satellite constellation has reached a major milestone, effectively transitioning from pure research and development to serious manufacturing.

R&D will continue as SpaceX Starlink engineers work to implement the true final design of the first several hundred or thousand spacecraft, but a significant amount of the team’s work will now be centered on producing as many Starlink satellites as possible, as quickly as possible. With anywhere from 4400 to nearly 12,000 satellites needed to complete the three major proposed phases of Starlink, SpaceX will have to build and launch a minimum of ~2200 satellites in the next five years, averaging 37 high-performance, low-cost spacecraft built and launched every month for the next 60 months.

A shift in the Stars

Despite the major challenges ahead of SpaceX, things seem to be going quite smoothly with the current mix of manufacturing and development. As previously reported on Teslarati, SpaceX CEO Elon Musk forced the Starlink group through a painful reorganization in the summer of 2018, challenging the remaining leaders and their team to launch the first batch of operational Starlink satellites no later than June 2019. As a consequence, a sort of compromise had to be reached where one additional group of quasi-prototype satellites would be launched before settling on a truly final design for serious mass-production.

According to SpaceX filings with the FCC, the first group of operational satellites – potentially anywhere from 75 to 1000 or more – will rely on just one band (“Ku”) for communications instead of the nominal two (“Ku” and “Ka”), a change that SpaceX says will significantly simplify the first spacecraft. By simplifying them, SpaceX believes it can expedite Starlink’s initial deployment without losing a great deal of performance or interfering with constellations from competitors like OneWeb.

OneWeb’s preliminary satellite production facility. (OneWeb)
SpaceX’s own Starlink deployment mechanism may look quite similar to this OneWeb-inspired render from Arianespace. (Arianespace)

Somewhere along the line, SpaceX would iteratively improve each subsequent ‘generation’ of Starlink satellites until they reached the nominal performance characteristics outlined in the company’s original constellation application. Knowing SpaceX, improvements would continue for as long as lessons continued to be learned from operating hundreds and eventually thousands of orbital spacecraft.

As one concrete example, recent SpaceX FCC documents stated that the first 75 Starlink spacecraft would feature a less-optimized reentry design, meaning that a select few components will not entirely burn up during reentry, creating debris that poses a slight added risk in the eyes of regulatory bodies like the FCC. After those first 75 spacecraft are built and launched, SpaceX will introduce upgrades – already planned and designed – that will reduce the surviving reentry debris (and thus their risk to humans below) to zero.

While the FCC has yet to grant SpaceX’s requested modifications, the other major goal is to reduce the operating orbit of the first phase of 1584 satellites to 550 km (340 mi), a change that SpaceX says will drastically reduce the potential lifespan of any orbital debris in the unlikely event of their creation. A lower altitude also places a major cushion between SpaceX’s first ~1500 satellites and the orbits of several other planned constellations, including OneWeb and Telesat.

Hello, Production Hell, my old friend

Meanwhile, SpaceX’s Starlink program has begun the often painful steps of transitioning from a venture primarily focused on research and development to one focused mainly on building production lines and supply chains and manufacturing hardware. SpaceX’s Starlink facilities are currently housed in three nearby buildings located in Redmond, Washington, likely offering approximately 150,000 square feet (14,000 m^2) for a mix of office, development, and production spaces. At least one of the three non-office buildings could potentially become dedicated to production while one building – approximately 40,000 ft^2 (~3500 m^2) – has already been completely transformed into a prototype of a Starlink satellite production line, supporting manufacturing for first several dozen quasi-prototype spacecraft. For reference, OneWeb’s dedicated satellite factory will feature around 100,000 square feet of space dedicated primarily to production, while the constellation’s satellites will be roughly half as large as SpaceX’s proposed Starlink satellites (~400 kg, 880 lb).

Mass-producing spacecraft at the scale needed to build even half of those needed for the first phase of ~4400 Starlink satellites will be a feat unprecedented in the history of the space industry. Barring FCC exemptions (possible but unlikely), SpaceX needs to launch ~2200 Starlink satellites between now and April 2024. To complete the first phase, the final number of satellites rises to ~4400. Adding on a proposed constellation of very low Earth orbit (VLEO) Starlink satellites, that number rises once more to a bit less than 12,000. Meanwhile, the cost of the satellites needs to be kept as low as possible while their performance is maximized. To put it in automotive terms, SpaceX needs to find a way to do the satellite equivalent of going from building Tesla’s original Roadster to the 2020 Roadster in just a handful of iterative generations and a few years.

One of the first two prototype Starlink satellites separates from Falcon 9’s upper stage, February 2018. (SpaceX)

Perhaps SpaceX will be able to garner invaluable insight from the lessons its sister company learned during Model 3’s torturous “production hell”, in which the car company had to grow its production volume by almost a magnitude as quickly as possible. Ironically, it may even be the case that SpaceX has the easier task relative to Tesla.

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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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SpaceX Starship Flight 13 faces wrath of the Texas skies

SpaceX pushed Starship Flight 13 to Friday, blaming weather instead of the previous engine issues.

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SpaceX called off Thursday’s launch attempt of Starship Flight 13, pushing the mission to Friday because of weather tied to Tropical Storm Bertha. The company confirmed the delay on X, noting “Now targeting Friday, July 24 for Starship’s thirteenth flight test, due to weather. A key objective for the flight test is to get clear imagery from the ground of Starship’s heatshield as it flies at a higher dynamic pressure during ascent, which won’t be possible with today’s weather conditions.”

This is the second delay for Flight 13 in two weeks. SpaceX first tried to launch the mission on July 16, but the countdown ended in an automated abort at T-0 when four of Super Heavy Booster 20’s 33 Raptor engines failed to ignite. Musk said at the time that two Raptors would need to be removed and replaced, as Teslarati reported. The company spent the following week destacking Ship 40 and Booster 20, swapping engines, and running leak checks before restacking the vehicle on Pad 2 Wednesday night, according to Spaceflight Now’s live coverage.

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Unlike the engine problem, Thursday’s delay has nothing to do with the hardware. SpaceX wants clean footage of Starship’s heat shield captured from the ground as the vehicle flies through max dynamic pressure, something the storm’s cloud cover over South Texas would not allow. The company said visibility should improve for Friday’s attempt, with the same 90 minute window opening at 5:45 p.m. CT.

Flight 13 will be the second outing for the V3 versions of Starship and Super Heavy, following their debut on Flight 12 in May. The mission carries 20 production Starlink V3 satellites, the first time SpaceX has flown operational satellites rather than mass simulators on Starship. Six of those satellites are fitted with cameras to inspect the heat shield from a different angle during ascent, giving engineers a second data source beyond the ground imagery the weather is currently blocking.

Booster 20 will attempt a boostback burn and a splashdown landing burn in the Gulf of America, while Ship 40 follows a suborbital trajectory toward a landing in the Indian Ocean. The flight plan largely mirrors Flight 12, though the booster will run a more aggressive ascent burn after max Q this time, and the ship’s heat shield includes load sensing tiles meant to measure stress at the higher dynamic pressure SpaceX is targeting.

If Friday’s attempt succeeds, Flight 13 could be the last suborbital test in the program. SpaceX is already looking to push for an orbital flight on Flight 14.

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Investor's Corner

Google’s massive stake in SpaceX will shock you

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Credit: SpaceX

In a striking revelation that underscores the lucrative crossover between Big Tech and space exploration, Alphabet Inc., Google’s parent company, disclosed a massive $94.1 billion equity stake in SpaceX following the rocket company’s blockbuster initial public offering earlier this year.

The disclosure came in Alphabet’s quarterly filing, marking the first time the long-held private investment has been publicly valued at market prices. Google was an early backer, investing alongside Fidelity in 2015 with roughly $500-900 million at a time when SpaceX was valued around $12 billion.

That bet has delivered extraordinary returns, roughly a hundredfold, transforming a strategic play on satellite internet and launch capabilities into one of Alphabet’s largest assets.

Of the total holding, approximately $80 billion remains subject to short-term post-IPO lockup restrictions, preventing near-term sales. An additional $14.1 billion faces longer-term restrictions, extending into the third quarter of 2027. This structure limits immediate liquidity but protects against market volatility as SpaceX transitions into public trading.

The SpaceX position contributed significantly to gains in Alphabet’s broader investment portfolio, which also includes a major stake in AI leader Anthropic. Combined, these holdings helped drive nearly $100 billion in investment gains during the second quarter, providing a substantial boost to net income amid ongoing AI spending pressures.

Elon Musk sends first warning to SpaceX short sellers

Analysts view the disclosure as validation of Alphabet’s venture strategy beyond its core search and cloud businesses. The investment aligns with deeper ties, including reported multi-billion-dollar deals for AI computing capacity on SpaceX infrastructure. As SpaceX advances Starship flights, Starlink expansion, and ambitious Mars goals under Elon Musk, Google’s stake positions it to benefit from the commercialization of space.

For Alphabet, the windfall highlights how patient, forward-looking bets in transformative sectors can yield outsized rewards. While lockups temper short-term impact, the holding cements SpaceX as a cornerstone of Alphabet’s diversified portfolio in an era where aerospace, AI, and connectivity increasingly intersect. Investors will watch closely as restrictions lift and SpaceX’s public performance unfolds.

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Elon Musk

Elon Musk handed Grok something no other AI company can get their hands on

Elon Musk says SpaceX will feed engineering data into Grok’s next model, avoiding restricted material.

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Artistic concept rendering of SpaceX data being incorporated into a Grok AI model

Elon Musk said Tuesday that SpaceX will feed its internal engineering data into the next major training run for Grok, the AI model now folded into SpaceX following February’s merger. In a post on X, Musk wrote that SpaceX’s “massive corpus of world-class engineering data,” excluding anything restricted under U.S. arms export law, will be added during supplemental training of what he called the “2T run,” a reference to a roughly two trillion parameter model that would nearly double the parameters behind the latest Grok 4.5 that’s rolling out.

The excluded material that Musk is referring to would fall under the International Traffic in Arms Regulations (ITAR), which restricts export of technical data tied to defense and space hardware. That likely rules out propulsion specifics for Merlin and Raptor engines along with guidance and control details for SpaceX’s launch vehicles, but leaves manufacturing knowledge, materials science, and Starlink hardware design on the table.

The announcement extends a pattern that has been building since SpaceX’s Nasdaq debut in June, when the company went public with Grok and xAI’s Colossus supercomputer folded into the pitch to investors.

Days after that listing, SpaceX closed its $60 billion all stock acquisition of coding startup Cursor, giving xAI both enterprise software distribution and a stream of real world developer data to train on. Grok 4.5 launched July 8 running partly on that Cursor training data, with Musk describing it as roughly comparable to Anthropic’s Opus 4.7 but faster and cheaper to run.

Feeding SpaceX’s own engineering data into the next AI model follows the same logic Musk has applied across xAI’s sister companies. Tesla supplies real world driving data and manufacturing expertise, X supplies conversational data, and now SpaceX supplies aerospace engineering data built up since 2002.

Musk did not give a release date for the upcoming AI model, referred to elsewhere as Grok 4.6. He has said the two trillion parameter run is in its final training phase and expected to wrap this week.

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