Connect with us

News

SpaceX a bastion of independent US, European spaceflight amid Russian threats

Published

on

Russia has invaded Ukraine without provocation, triggering a series of diplomatic responses – sanctions in particular – that recently culminated in the aggressor deciding to cut ties with Europe on a number of cooperative spaceflight projects.

Dmitry Rogozin, director of Russia’s national ‘Roscosmos’ space agency, went as far as implying that the country might respond to the West’s aerospace sanctions by ending its support of the International Space Station (ISS), a move that could cause the football-field-sized structure to gradually deorbit and reenter Earth’s atmosphere. Were it not for the existence of two extraordinarily successful NASA programs and SpaceX in particular, Russia’s response – which, today, reads like a child’s tantrum – could easily have been a grave threat with far-reaching consequences.

In response to sanctions after its unprovoked invasion, Russia announced that it was withdrawing support from Europe’s French Guinea Soyuz launch operations, effectively killing Arianespace’s Soyuz offering and potentially delaying several upcoming European launches indefinitely.

As a quick side note, it’s worth noting that ULA’s lack of readily available rockets and the fact that Arianespace is likely at least a year or more away from regular Ariane 6 launches means that SpaceX may be the only Western launch provider in the world capable of filling in the gap that Arianespace’s Soyuz loss will leave. Aside from pursuing Chinese launch services, which is likely a diplomatic non-starter, the only alternative to rebooking former European Soyuz payloads on SpaceX rockets is to accept one or even several years of expensive delays.

Advertisement

On the other half of the coin is the International Space Station. NASA signed its first major contract with SpaceX in 2008, awarding the company $1.6 billion (and up to $3.5 billion) to launch a dozen Cargo Dragon supply missions to the ISS. Aside from effectively pulling SpaceX back from the brink of dissolution, those funds also covered a large portion of the development of its Falcon 9 rocket and Dragon spacecraft and simultaneously funded Orbital Science’s (later Orbital ATK and now Northrop Grumman) Cygnus cargo spacecraft and Antares rocket.

Despite suffering two failures in 2014 and 2015, NASA’s Commercial Resupply Services (CRS) program has been an extraordinary success. Together, Cygnus (17) and Dragon (24) have completed 41 deliveries in the last 12 years, carrying more than 110 tons (~240,000 lb) of cargo to the ISS.

Out of sheer coincidence, on February 19th, mere days before Russia’s act of war, Northrop Grumman launched the first Cygnus spacecraft designed to help ‘re-boost’ (raise the orbit of) the International Space Station. Since NASA’s premature 2011 retirement of the Space Shuttle, that task has been exclusively conducted by a combination of Russian spacecraft and the station’s Russian Zvezda module. Without regular Russian re-boost support, the station would deorbit and be destroyed. In other words, if push came to shove, the ISS could very literally fail without direct Russian involvement. Rogozin’s threat, then, was that Russia might cease to support ISS re-boosting if sanctions went too far.

However, even while ignoring the fact that NASA itself actually paid for and owns the ISS Zvezda propulsion module and in light of the first Cygnus spacecraft upgraded with a re-boost capability berthing with the station the very same week of the invasion, Russia’s threat rang decidedly hollow. Further, if Cygnus weren’t available, it’s still difficult to imagine that SpaceX wouldn’t be able to quickly develop its own Dragon re-boost capability if asked to do so.

Advertisement

While re-boosting is crucial, the situation has also emphasized just how little leverage Russia now has over even more important aspects of the International Space Station. Were it not for the existence of SpaceX and NASA’s Commercial Crew Program (CCP), the situation could be even direr for Europe and the US. Despite some pressure from lawmakers to only award the CCP contract to Boeing, NASA ultimately selected Boeing and SpaceX to develop independent crew capsules capable of carrying US astronauts to and from ISS in 2014. Following a near-flawless uncrewed Crew Dragon test flight in 2019 and an equally successful crewed demo mission in 2020, SpaceX completed its first operational Crew Dragon launch in November 2020.

Since then, SpaceX has launched another two operational ‘crew rotation’ missions, meaning that the company has now singlehandedly supported all US astronaut launch and recovery operations for 16 months. Due in part to extensive mismanagement, Boeing’s Starliner spacecraft was nearly destroyed twice during its first catastrophic uncrewed test flight in December 2019. The spacecraft is still months away from a second attempt at that test flight, likely at least 9-12 months away from a hypothetical crewed test flight, and potentially 18+ months away from even less certain operational NASA astronaut launches. Further, though ULA CEO Tory Bruno claims that the company doesn’t need any support from Russia, all Atlas Vs – the rocket responsible for launching Starliner – depend on Russian-built RD-180 engines.

Further adding to the mire, even Cygnus is not immune. The first stage of the Antares rocket that mainly launches it is both built in Ukraine and dependent upon Russian Energomash RD-181 engines. Northrop Grumman only has the hardware on hand for the next two Cygnus-Antares launches, at which point the company will have to either abandon its NASA contract or find an alternative launch provider. Once again, SpaceX is the only US provider obviously capable of filling that gap on such short notice and without incurring major delays of half a year or more.

Boeing's Starliner and SpaceX's Crew Dragon spacecraft stand vertical at their respective launch pads in December 2019 and January 2020. Crew Dragon has now performed two successful full-up launches to Starliner's lone partial failure. (Richard Angle)
Boeing’s Starliner and SpaceX’s Crew Dragon spacecraft are pictured on their Atlas V and Falcon 9 rockets. (Richard Angle)

In fewer words, without SpaceX, NASA would still be exclusively dependent upon Russian Soyuz rockets and spacecraft to get its astronauts to and from the space station it spent tens of billions of dollars to help build. Even in a best-case SpaceX-free scenario, NASA might instead be dependent upon a rocket with Russian engines to launch its own astronauts. Needless to say, the presence of US astronauts on Russian launches and ULA’s use of Russian engines were already extremely sensitive issues after Russia ‘merely’ invaded Ukraine’s Crimea region in 2014.

It’s hard not to imagine that US and European responses to Russia’s aggression would have been weakened if NASA and ESA astronauts were still entirely dependent upon Russia to access the International Space Station. Further, in the same scenario, given its withdrawal from French Guinea, it’s also not implausible to imagine that Russia might have severely hampered or even fully withdrawn its support of Western access to the ISS.

Advertisement

Put simply, Crew Dragon – now a bastion of independent European and US human spaceflight in an age of extraordinary Russian recklessness – has arguably never been more important and SpaceX’s success never more of a triumph than they are today.

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.

Advertisement
Comments

Elon Musk

Tesla FSD mocks BMW human driver: Saves pedestrian from near miss

Tesla FSD anticipated a BMW driver’s lane drift before the human behind the wheel could react.

Published

on

By

A video posted to r/TeslaFSD this week put a sharp spotlight on Tesla’s Full Self-Driving (FSD) software being able to react to pedestrian intent than an actual human driver behind the wheel. In the Reddit clip, a BMW driver can be seen rolling through a neighborhood street completely unaware of a pedestrian stepping in to cross. At the same time, a Tesla  driving on FSD had already begun slowing down before the pedestrian even began their attempt to cross the street The BMW kept moving, prompting the pedestrian to hop back, while the Tesla came to a stop and provide right-of-way for the human to safely cross.

That gap between what the BMW driver saw and what FSD had already processed is the story. Tesla FSD wasn’t reacting to a person in the street, rather it was reading the signals that a person was about to enter it based on the pedestrian’s movement, trajectory, and their trajectory to telegraph intent.

Tesla’s FSD is now built on an end-to-end neural network trained on billions of real-world miles, learning to interpret subtle human behavioral cues the same way an experienced human driver does instinctively. The difference is consistency. A human driver distracted for two seconds misses what FSD does not.

Tesla sues California DMV over Autopilot and FSD advertising ruling

Reddit commenters in the thread were blunt about the BMW driver’s failure, with several pointing out that the pedestrian was visible well before the crossing. One response put it plainly that the car on FSD saw the situation developing before the human in the other car had registered there was a situation at all.

Tesla has published data showing FSD (Supervised) is 54% safer than a human driver, accumulated across billions of miles driven on the system. Elon Musk has said FSD v14 will outperform human drivers by a factor of two to three, and that v15 has “a shot” at a 10x improvement. Pedestrian safety is where the stakes are highest, and where intent prediction closes the gap fastest. At 30 mph, a car covers roughly 44 feet per second. An extra second of awareness from reading a person’s body language rather than waiting for them to step out is often the difference between a near miss and a fatality.

Video and community discussion: r/TeslaFSD on Reddit

FSD saves man from becoming a pancake. BMW driver nearly flattens him.
by
u/Qwertygolol in
TeslaFSD

Continue Reading

News

Tesla Robotaxi gets a small but significant change

In the world of Tesla, where billion-dollar battery breakthroughs and autonomy milestones dominate headlines, a quiet design update can still pack a punch.

Published

on

Credit: David Moss | X

In the world of Tesla, where billion-dollar battery breakthroughs and autonomy milestones dominate headlines, a quiet design update can still pack a punch.

Last week in downtown Austin, sharp-eyed observers spotted a subtle but telling evolution on the Cybercab: a new “ROBOTAXI” logo graphic now graces the vehicle’s doors at Tesla’s Autonomy Popup.

What looks at first glance like a minor stylistic choice is, in fact, a deliberate rebranding move that hints at how the company envisions its robotaxi fleet fitting into everyday life.

The updated lettering is bold, graffiti-inspired, and unapologetically street-smart. Rendered in black with dripping white accents and a glowing yellow outline, the font evokes urban energy and playful irreverence.

Gone is the sleek, minimalist typography that defined earlier Cybercab prototypes. In its place is something more human, almost rebellious.

The new logo pops against the Cybercab’s smooth, metallic body, turning the autonomous pod into a rolling piece of public art rather than just another futuristic taxi.

Designers know that fonts are silent brand ambassadors. They shape perception before a single ride is taken. Tesla’s classic sans-serif aesthetic screams precision engineering and Silicon Valley cool.

The new Robotaxi script leans into accessibility and fun, suggesting the vehicle is approachable, not intimidating. For a product meant to ferry strangers through city streets 24/7, that matters. It signals that the robotaxi isn’t reserved for tech elites; it’s for everyone.

Tesla Cybercab spotted next to Model Y shows size comparison

The timing is no accident. With regulatory approvals for unsupervised autonomy advancing and Tesla preparing to scale Cybercab production, the company is shifting from prototype showcase to fleet deployment.

A fresh logo helps differentiate the vehicles visually in dense urban environments—crucial for rider recognition and brand recall. It also aligns with Elon Musk’s long-standing ethos: make the future feel exciting, not sterile.

Small changes like this often foreshadow a larger strategy. Tesla has always obsessed over details—door handles, screen interfaces, even the curvature of a steering wheel.

Updating the Robotaxi font reflects the same meticulous care now applied to consumer-facing autonomy. It’s not just paint on metal; it’s a statement that the ride of the future should feel personal, memorable, and undeniably cool.

In an industry racing toward self-driving fleets, Tesla’s willingness to evolve even the smallest visual cues shows confidence. A font won’t launch the robotaxi network, but it might just help millions climb aboard with a smile.

Continue Reading

News

Tesla makes latest announcement on Model S and Model X

The announcement follows Tesla CEO Elon Musk’s statement on the Q4 2025 earnings call in late January. Musk described the decision as an “honorable discharge” for the two vehicles, noting that production would wind down in Q2 2026.

Published

on

Credit: Tesla

Tesla has officially begun winding down production of its flagship Model S and Model X in the United States, notifying owners via email that the long-running models will soon reach the end of the line.

The email, sent to U.S. customers on March 27, opens with gratitude. “Model S and Model X marked the beginning of the world’s transition to electric transportation,” it reads. “These vehicles also made it possible for Tesla to develop the technology that would move our world toward autonomy.”

Tesla officially begins sunset of Model S and Model X

It then delivers the news directly: “As we make way for this autonomous future, Model S and Model X production will be ending. If you’d like to bring home a new Model S or Model X, order yours soon from our limited inventory.”

The message closes with a simple thank-you: “Thank you for being part of our journey.”

The announcement follows Tesla CEO Elon Musk’s statement on the Q4 2025 earnings call in late January. Musk described the decision as an “honorable discharge” for the two vehicles, noting that production would wind down in Q2 2026.

The move frees factory floor space at Fremont, California, for next-generation manufacturing, including Optimus humanoid robots and the upcoming Robotaxi platform.

Introduced in 2012 and 2015, respectively, the Model S and Model X were Tesla’s original halo cars. They proved EVs could outperform gasoline luxury vehicles in acceleration, range, and tech features while pioneering over-the-air updates and early autonomy hardware.

Although they never matched the volume of the Model 3 and Model Y, their engineering breakthroughs laid the foundation for the company’s current lineup and full self-driving development.

Early adopters highlighted how the cars convinced them to invest in Tesla stock and the EV movement. Some U.S. owners who had not yet received the note voiced mild frustration, and international customers confirmed the outreach remains U.S.-only for now.

Tesla has not detailed an exact final production date beyond the Q2 2026 target or confirmed immediate replacements. Speculation continues about a possible Cybertruck-derived SUV, but the company’s public focus has shifted squarely to autonomy and robotics.

For buyers still interested in the S or X, the window is closing. Inventory is described as limited, and Tesla’s Korean division has already set a March 31 cutoff for new orders in that market. The email serves as both a farewell and final sales push, an elegant close to a chapter that helped define modern electric driving.

Continue Reading