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SpaceX ramps Starship hiring as Elon Musk talks Texas rocket factory's "awesome" progress

An overview of SpaceX's rapidly-expanding South Texas Starship factory. (NASASpaceflight - bocachicagal)

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After several successful tests last month, Elon Musk says that SpaceX’s South Texas Starship team is looking to rapidly expand in order to aggressively ramp up Starship manufacturing in a sign that the nascent rocket factory is making excellent progress.

Almost immediately after SpaceX successfully wrapped up its first and second explosive Starship tank tests last month, the company’s Boca Chica, Texas presence started to take on a new atmosphere, reminiscent of the rapid progress made at a since-mothballed Florida Starship facility. Perhaps thanks to the fact that SpaceX’s Boca Chica Starship facilities are adjacent to a dedicated test and launch facility just a mile down the road, it’s looking much less likely that a similar fate will befall its Texas presence.

Instead, SpaceX’s successful Starship tank tests – intentionally destroying two massive propellant tanks – are a testament to the progress the next-generation rocket is making in Texas. In fact, SpaceX CEO Elon Musk has effectively stated that after the most recent tank test, the company is now ready to shift gears and start building the first space-bound Starship prototypes, while the last week or two of SpaceX’s visible Texas activities make it clear that that shift is already well underway.

SpaceX is in the midst of rapidly expanding Starship’s Boca Chica, Texas production facilities. (NASASpaceflight – bocachicagal)

In simple terms, SpaceX now appears to be moving full speed ahead in a bid to manufacture, assemble, and test the first flightworthy, full-scale Starship prototypes. It’s worth noting that CEO Elon Musk has underestimated the challenge at hand several times in the last 18 or so months of Starship development, frequently suggesting that the first full-scale prototype of the spacecraft would be ready for a challenging flight test and maybe even its first orbital flights as early as 2019.

For a number of reasons, those ambitious targets were not met. To Musk’s credit, the executive is at least conscious of his tendency to be wildly optimistic when it comes to schedules and has effectively tacked on an asterisk that the schedules and deadlines he often publicizes tend more along the lines of “this time-frame is technically possible without breaking the laws of physics” than anything verging on pragmatism. With challenges as complex as those faced in spaceflight, let alone massive, fully-reusable rockets like Starship, it’s hard to be surprised that practical deadlines tend to be miles away from theoretically-possible minimums.

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On November 20th, Starship Mk1 suffered a major structural failure during cryogenic proof testing. (NASASpaceflight – bocachicagal)
SpaceX’s first Starship test tank was built primarily outside in the South Texas elements, just like Starship Mk1, but it did use improved welding techniques and a better dome design. (NASASpaceflight – bocachicagal)
SpaceX’s second Starship ‘test tank’ is pictured here shortly before it was successfully pressurized to destruction. (NASASpaceflight – bocachicagal)

As such, it wouldn’t be unreasonable to feel a bit like the townspeople with a boy crying wolf, but there are arguably several reasons for optimism, this time around. Most importantly, as partially pictured above, SpaceX has completed four intentionally destructive tests with full-scale Starship hardware in just the last 2.5 months. Deemed unfit for flight, SpaceX pressurized Starship Mk1 with liquid nitrogen until it burst in November 2019, reaching an estimated 3-5 bar (45-75 psi).

SpaceX spent the following month upgrading both the methods and facilities used to build Starship prototypes in South Texas – a process that is still very much ongoing. However, two recent tests of Starship tanks built with some of those new methods and facilities have unequivocally proven that great progress is being made. The first ‘test tank’ managed 7.1 bar (105 psi) before it burst, while a second tank completed less than three weeks later reached 7.5 bar (110 psi) with water and 8.5 bar (125 psi) with liquid nitrogen on January 28th. Between those tests, Musk revealed that 6 bar was the bare minimum necessary for orbital Starship flights, while 8.5 bar would potentially offer the safety margins needed for crewed Starship flights.

In other words, SpaceX’s last two tank tests have effectively proved that – even with facilities and methods only partially upgraded – the company is ready to begin manufacturing the first truly flight-rated Starship prototypes. In response, Musk recently stated that he was going “max hardcore on” Starship design and production in Boca Chica and revealed that SpaceX would host a second South Texas jobs fair in three weeks to help rapidly staff its growing rocket factory.

In the last two weeks, SpaceX has aggressively ramped up steel ring production, stacked and welded together to form Starship tanks. (NASASpaceflight – bocachicagal)
SpaceX is rapidly assembling what appears to be Starship SN01, expected to be the spacecraft’s first flightworthy full-scale prototype. (NASASpaceflight – bocachicagal)

Looking at the progress SpaceX has made in just the last week, it’s hard to fault Musk’s brimming enthusiasm. Now breaking in new semi-automated welding machines, upgraded production equipment, and two massive sprung structures (i.e. tents), SpaceX engineers and technicians are churning out improved steel rings, tank domes (bulkheads), smaller propellant tanks, and more at a breakneck pace relative to the last year of Starship work. Additionally, at least six of those new rings have been stacked together in two sections, likely representing the effective birth of the first flightworthy Starship – ‘SN01’.

With SpaceX’s new enclosed facilities, much of its South Texas work is now hidden. Still, from what’s visible, it’s safe to say that the company is well its way to completing the first flight – and possibly orbit – worthy Starship prototypes in the near future.

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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 makes latest move to remove Model S and Model X from its lineup

Tesla’s latest decisive step toward phasing out its flagship sedan and SUV was quietly removing the Model S and Model X from its U.S. referral program earlier this week.

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Credit: Tesla

Tesla has made its latest move that indicates the Model S and Model X are being removed from the company’s lineup, an action that was confirmed by the company earlier this quarter, that the two flagship vehicles would no longer be produced.

Tesla has ultimately started phasing out the Model S and Model X in several ways, as it recently indicated it had sold out of a paint color for the two vehicles.

Now, the company is making even more moves that show its plans for the two vehicles are being eliminated slowly but surely.

Tesla’s latest decisive step toward phasing out its flagship sedan and SUV was quietly removing the Model S and Model X from its U.S. referral program earlier this week.

The change eliminates the $1,000 referral discount previously available to new buyers of these vehicles. Existing Tesla owners purchasing a new Model S or Model X will now only receive a halved loyalty discount of $500, down from $1,000.

The updates extend beyond the two flagship vehicles. New Cybertruck buyers using a referral code on Premium AWD or Cyberbeast configurations will no longer get $1,000 off. Instead, both referrer and buyer receive three months of Full Self-Driving (Supervised).

The loyalty discount for Cybertruck purchases, excluding the new Dual Motor AWD trim level, has also been cut to $500.

These adjustments apply only in the United States, and reflect Tesla’s broader strategy to optimize margins while boosting adoption of its autonomous driving software.

The timing is no coincidence. Tesla confirmed earlier this year that Model S and Model X production will end in the second quarter of 2026, roughly June, as the company reallocates factory capacity toward its Optimus humanoid robot and next-generation vehicles.

With annual sales of the low-volume flagships already declining (just 53,900 units in 2025), incentives are no longer needed to drive demand. Production is winding down, and Tesla expects strong remaining interest without subsidies.

Industry observers see this as the clearest sign yet of an “end-of-life” phase for the vehicles that once defined Tesla’s luxury segment. Community reactions on X range from nostalgia, “Rest in power S and X”, to frustration among long-time owners who feel perks are eroding just as the models approach discontinuation.

Some buyers are rushing orders to lock in final discounts before they vanish entirely.

Doug DeMuro names Tesla Model S the Most Important Car of the last 30 years

For Tesla, the move prioritizes efficiency: fewer discounts on outgoing models, a stronger push for FSD subscriptions, and a focus on high-margin Cybertruck trims amid surging orders.

Loyalists still have a narrow window to purchase a refreshed Plaid or Long Range model with remaining incentives, but the message is clear: Tesla’s lineup is evolving, and the era of the original flagships is drawing to a close. 

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Tesla Australia confirms six-seat Model Y L launch in 2026

Compared with the standard five-seat Model Y, the Model Y L features a longer body and extended wheelbase to accommodate an additional row of seating.

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Credit: Tesla China

Tesla has confirmed that the larger six-seat Model Y L will launch in Australia and New Zealand in 2026. 

The confirmation was shared by techAU through a media release from Tesla Australia and New Zealand.

The Model Y L expands the Model Y lineup by offering additional seating capacity for customers seeking a larger electric SUV. Compared with the standard five-seat Model Y, the Model Y L features a longer body and extended wheelbase to accommodate an additional row of seating.

The Model Y L is already being produced at Tesla’s Gigafactory Shanghai for the Chinese market, though the vehicle will be manufactured in right-hand-drive configuration for markets such as Australia and New Zealand.

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Tesla Australia and New Zealand confirmed the vehicle will feature seating for six passengers.

“As shown in pictures from its launch in China, Model Y L will have a new seating configuration providing room for 6 occupants,” Tesla Australia and New Zealand said in comments shared with techAU.

Instead of a traditional seven-seat arrangement, the Model Y L uses a 2-2-2 layout. The middle row features two individual seats, allowing easier access to the third row while providing additional space for passengers.

Tesla Australia and New Zealand also confirmed that the Model Y L will be covered by the company’s updated warranty structure beginning in 2026.

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“As with all new Tesla Vehicles from the start of 2026, the Model Y L will come with a 5-year unlimited km vehicle warranty and 8 years for the battery,” the company said.

The updated policy increases Tesla’s vehicle warranty from the previous four-year or 80,000-kilometer coverage.

Battery and drive unit warranties remain unchanged depending on the variant. Rear-wheel-drive models carry an eight-year or 160,000-kilometer warranty, while Long Range and Performance variants are covered for eight years or 192,000 kilometers.

Tesla has not yet announced official pricing or range figures for the Model Y L in Australia.

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Tesla Roadster patent hints at radical seat redesign ahead of reveal

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A newly published Tesla patent could offer one of the clearest signals yet that the long-awaited next-generation Roadster is nearly ready for its public debut.

Patent No. US 20260061898 A1, published on March 5, 2026, describes a “vehicle seat system” built around a single continuous composite frame – a dramatic departure from the dozens of metal brackets, recliner mechanisms, and rivets that make up a traditional car seat. Tesla is calling it a monolithic structure, with the seat portion, backrest, headrest, and bolsters all thermoformed as one unified piece.

The approach mirrors Tesla’s broader manufacturing philosophy. The same company that pioneered massive aluminum castings to eliminate hundreds of body components is now applying that logic to the cabin. Fewer parts means fewer potential failure points, less weight, and a cleaner assembly process overall.

Tesla Roadster Seat Concept Image by TESLARATI

Tesla ramps hiring for Roadster as latest unveiling approaches

The timing of the filing is difficult to ignore. Elon Musk has publicly targeted April 1, 2026 as the date for an “unforgettable” Roadster design reveal, and two new Roadster trademarks were filed just last month. A patent describing a seat architecture suited for a hypercar, and one that Tesla has promised will hit 60 mph in under two seconds.

The Roadster, originally unveiled in 2017, has been one of Tesla’s most anticipated yet most delayed products. With a target price around $200,000 and engineering ambitions to match, it is being positioned as the ultimate showcase for what Tesla’s technology can do.

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The patent was first flagged by @seti_park on X.

Tesla Roadster Monolithic Seat: Feature Highlights via US Patent 20260061898 A1

  1. Single Continuous Frame (Monolithic Construction). The core invention is a seat assembly built from one continuous frame that integrates the seat portion, backrest portion, and hinge into a single component — eliminating the need for separate structural parts and mechanical joints typical in conventional seats.
  2. Integrated Flexible Hinge. Rather than a traditional mechanical recliner, the hinge is built directly into the continuous frame and is designed to flex, and allowing the backrest to move relative to the seat portion. The hinge can be implemented as a fiber composite leaf spring or an assembly of rigid linkages.
  3. Thermoformed Anisotropic Composite Material. The continuous frame is manufactured via thermoforming from anisotropic composite materials, including fiberglass-nylon, fiberglass-polymer, nylon carbon composite, Kevlar-nylon, or Kevlar-polymer composites, enabling a molded-to-shape monolithic structure.
  4. Regionally Tuned Stiffness Zones. The frame is engineered with up to six distinct stiffness regions (R1–R6) across the seat, backrest, hinge, headrest, and bolsters. Each zone can have a different stiffness, allowing precise ergonomic and structural tuning without adding separate components.
  5. Linkage Assembly Hinge Mechanism. The hinge incorporates one or more linkage assemblies consisting of multiple interlocking links with gears, connected by rods. When driven by motors or actuators, these linkages act as a flexible member to control backrest movement along a precise, ergonomically optimized trajectory.
  6. Multi-Actuator Six-Degree-of-Freedom Positioning System. The seat uses four distinct actuator pairs, all controlled by a central controller. These actuators work in coordinated combinations to achieve fore/aft, height, cushion tilt, and backrest rotation adjustments simultaneously.
  7. ECU-Based Controller Architecture. An Electronic Control Unit (ECU) and programmable controller manage all seat actuators, receive user input via a user interface (touchscreen, buttons, or switches), and incorporate sensor feedback to confirm and maintain desired seat positions, essentially making this a software-driven seat system.
  8. Airbag-Integrated Bolster Deployment System. The backrest bolsters (216) are geometrically shaped and sized to guide airbag deployment along a specific, pre-configured trajectory. Left and right bolsters can have different shapes so that each guides its respective airbag along a distinct trajectory, improving occupant protection.
  9. Ventilation Holes Formed into the Backrest. The continuous frame includes one or more ventilation holes formed directly into the backrest portion, configured to either receive airflow into or deliver airflow from the seat frame — enabling passive or active thermal comfort without requiring separate ventilation components.
  10. Soft Trim Recess for Tool-Free Integration. The headrest and backrest portions together define a molded recess, specifically designed to receive and secure a soft trim component (foam, fabric, or cushioning) directly into the continuous frame, eliminating the need for separate attachment hardware and simplifying final assembly.

 

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