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SpaceX competitor Arianespace criticized for lackluster response to Falcon 9’s success

Ariane 5, Ariane 6, and Falcon 9. (Arianespace/SpaceX)

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Best known for the commercial success of its Ariane 5 workhorse rocket, European aerospace cooperative Arianespace was heavily critiqued in the latest annual report from France’s Cour des comptes (Court of Auditors) for what is perceived as an unsustainable and overly cautious response to the swift rise of SpaceX’s affordable and reusable Falcon 9 rocket.

First spotted and discussed by Ars Technica’s Eric Berger, the French auditor’s 2019 report featured a full volume – 1 of 30 – dedicated to Ariane 6, a prospective next-gen Arianespace rocket selected for development by the EU in 2014. Despite the fact that Ariane 6 is at least a full year away from its first launch, Cour des comptes is already questioning the rocket’s ability to successfully make headway into an increasingly competitive market, competition that has already had a direct and tangible impact on Arianespace’s Ariane 5 launch vehicle.

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“More than 50% of Falcon 9’s lifetime launches occurred in the last ~12% (24 months) of the rocket’s operational career.”

While other competitors certainly do exist, the fact remains that that said increase in launch market competition can be almost singlehandedly attributed to the rapid entrance of SpaceX’s Falcon 9 rocket onto the commercial launch scene. Despite major stumbles in 2015 and 2016 as a result of Falcon 9’s CRS-7 and Amos-6 failures, SpaceX appears to have dealt with the organizational faults that allowed them to occur, culminating in an auspicious launch cadence over the course of 2017 and 2018. While Falcon 9 has technically been flying since mid-2010, a full 38 of the rocket’s 64 successful launches were completed in the last 24 months, meaning that more than 50% of Falcon 9’s launches have occurred in the last ~12% of the rocket’s operational life.

Critically, a number of European nations settled on Ariane 6 as the successor to Ariane 5 in 2014, at which point Falcon 9 had launched just 13 times (7 times commercially) and SpaceX was more than 12 months away from its first successful rocket recovery and ~30 months from its first commercial reuse. To the credit of Arianespace and the EU nations that supported the prospective Ariane 5 successor, Ariane 6 may have actually been able to reliably compete with Falcon 9’s pricing if it had begun launching within 12-24 months of the 2014 decision to build it and if SpaceX had simply sat on its laurels and ended development programs.

Coasting on the race track

Of course, neither of those prerequisites to Ariane 6’s success occurred. SpaceX successfully reused the same Falcon 9 booster three times in just six months by the end of 2018, while Falcon Heavy is set to attempt its first two operational launches just a few months from now. Ariane 6 is still targeting a launch debut no earlier than (NET) 2020, while a handful of extremely limited reusable rocket R&D programs continue to limp towards nebulous targets with minimal funding. Meanwhile, thanks to Arianespace’s French heritage and the major financial support of French space agency CNES, Cour des comptes is in the right to be highly critical of a ~$3.9B rocket development program likely to cost France at least $600M before the first launch.

 

Once Ariane 6 is ready to launch, it’s aspirational pricing will all but guarantee an inability to compete on an even global playing field. Divided into two versions, A62 and A64, Ariane 6 will cost at least 75 million Euros (~$85M) for performance equivalent to SpaceX’s Falcon 9 in its reusable configuration (base price: $62M), while the heavier A64 variant – capable of placing two heavy satellites (11,500 kg) into geostationary transfer orbit – will cost at least 90 million Euros (~$102M) per launch. Admittedly, $102M to launch a duo of large geostationary satellites would be easily competitive with Falcon 9 with per-customer costs around $50M, but this only holds true if the imminent commercial introduction of Falcon Heavy (list price: $90M) is ignored.

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However, the market for large geostationary satellites has plummeted into the ground in the last two years, over the course of which just 12 have been ordered. Arianespace thus faces a conundrum where its cheaper Ariane 62 rocket is already too expensive to compete commercially and the potentially competitive Ariane 64 variant is only competitive for a commercial launch market that has withered to barely a third of its nominal demand in just two years time. Acknowledged by France’s auditors (and noted by Mr. Berger), the most probable outcome for Ariane 6 is one in which the very existence of the rocket will be predicated upon continual annual subsidies from the European Space Agency (ESA) in order to make up for the rocket’s inability to sustain commercial orders beyond a handful of discounted shoo-in contracts.


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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 comes with a slew of changes for Starship Flight 13

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Credit: SpaceX

SpaceX is gearing up for the 13th Starship integrated flight test, which is currently scheduled for Thursday, July 16, with the launch window opening up at 6:30 PM E.T. from Starbase in South Texas.

This mission, the second with the V3 Starship and Super Heavy vehicles, builds directly on the foundation of Flight 12 while introducing ambitious new objectives, including the debut deployment of next-generation Starlink V3 satellites.

The rapid iteration between flights underscores SpaceX’s “fail fast, learn faster” philosophy, with engineers addressing specific anomalies from the previous test to push reusability and payload capabilities further.

Flight 12 occurred earlier in 2026 and encountered notable challenges that became catalysts for Flight 13’s improvements. Issues included booster course deviations during the flip maneuver after stage separation, reusability problems with Super Heavy’s Raptor engine relights for the boostback burn, and an engine-out event on the Starship upper stage during its propulsion phase.

These hiccups, while they did not prevent overall mission success, highlighted areas needing refinement for more consistent performance and higher safety margins in future operational flights.

Elon Musk called it Epic: The full story of SpaceX’s Starship Flight 12

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In response, SpaceX implemented a comprehensive suite of both hardware and software upgrades.

For the booster, engineers developed a more robust stage separation flip sequence to maintain stable orientation and prevent off-course rotation. Hardware modifications have enhanced Raptor re-light reliability during the boostback burn, complemented by updated engine alarms and abort logic tailored for multi-engine operations. On the Starship side, propulsion system changes directly tackle the Flight 12 engine-out scenario, improving redundancy and operational resilience.

Another major focus of SpaceX for Flight 13 was the advancements in the heat shield. New tile designs and attachment mechanisms, including tests of aft flaps and skirts, aim to boost durability.

Load-sensing tiles will measure real-time stresses during atmospheric entry, while white-painted tiles simulate missing ones as imaging targets. Six of the 20 Starlink V3 satellites carried aboard will feature specialized cameras to scan and transmit heat shield imagery back to ground teams, providing critical data for future return-to-launch-site attempts.

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The mission profile also includes a higher dynamic pressure ascent to stress-test the thermal protection system and increase payload potential, alongside a planned in-space Raptor engine relight demonstration.

The V3 Starlink satellites themselves mark a leap forward, equipped with laser links, deployable solar arrays, and improved antennas to expand network capacity and speeds.

The company wrote:

“For the first time, Starship will carry V3 Starlink satellites to space, which aim to greatly expand the network’s capacity and user speeds. As part of this initial test, Starship is planned to deploy 20 satellites which will extend solar arrays and antennas and will attempt to connect with ground stations in South Africa and the larger Starlink constellation via high-capacity lasers. Six of the satellites have been modified with a suite of cameras to scan Starship’s heat shield and transmit imagery down to operators to continue testing methods of analyzing Starship’s heat shield readiness for return to launch site on future missions. Several tiles on Starship have been painted white to simulate missing tiles and serve as imaging targets in the test.”

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This dual-purpose flight tests both vehicle reliability and satellite tech in one integrated operation.

These iterative changes, catalyzed by Flight 12’s data, position Starship closer to rapid reusability goals essential for ambitious programs like Artemis lunar missions and global Starlink coverage.

As SpaceX continues its aggressive test cadence, Flight 13 exemplifies how targeted engineering responses to real-flight anomalies accelerate progress toward fully operational, high-cadence launches. Success here could mark another milestone in the Starship program for SpaceX.

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SpaceX reveals Starship Flight 13 launch date

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SpaceX Starship V3 flight 12
SpaceX Starship V3 flight 12 (Credit: SpaceX)

SpaceX is preparing for the 13th integrated flight test of its Starship system, with a targeted launch as early as Thursday, July 16. The 90-minute launch window opens at 5:45 p.m. CT from Starbase in South Texas.

This comes roughly seven weeks after Flight 12 on May 22, underscoring the company’s accelerating pace in its rapid development campaign. The mission will use the latest Starship and Super Heavy V3 vehicles equipped with Raptor 3 engines. Booster 20 will attempt a controlled boostback burn, followed by a splashdown in the Gulf of Mexico, while Ship 40 will follow a suborbital trajectory.

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Key objectives for Flight 13 will include demonstrating reliable stage separation, engine performance under various conditions, and controlled reentry.

A major milestone for Flight 13 is the first deployment of 20 next-generation Starlink V3 satellites. These satellites feature advanced laser links for inter-satellite communication, deployable solar arrays, and onboard cameras, six of which will capture imagery of Starship’s heat shield during flight.

Several heat shield tiles on Ship 40 will be painted white to serve as imaging targets, while additional experiments test upgraded tiles on aft flaps, modified attachments on the aft skirt, and load-sensing tiles to measure stresses. The upper stage will also attempt a single Raptor engine relight in space before a targeted splashdown in the Indian Ocean.

These tests build directly on lessons from Flight 12, which introduced the V3 configuration but encountered issues including a booster flip anomaly during boostback and an engine-out event on the ship. Hardware and software modifications on Booster 20 and Ship 40 aim to improve engine relight reliability, startup sequencing, and overall robustness.

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The short interval between Flights 12 and 13 highlights SpaceX’s iterative approach. Elon Musk has repeatedly emphasized that Starship launches will become “incredibly common” in the coming years.

The company envisions scaling to rates as high as one launch per hour within 4-5 years, potentially enabling thousands of flights annually. Such cadence is essential for Starship’s goals: establishing orbital refueling for lunar and Mars missions, deploying massive satellite constellations, and making life multiplanetary.

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With each flight, Starship edges closer to full reusability and operational maturity. Success on July 16 would mark another step toward routine access to space and the ambitious vision of humanity becoming a spacefaring civilization.

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Elon Musk admits he was ‘clearly wrong’ about Anthropic

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Ministério Das Comunicações, CC BY 2.0 , via Wikimedia Commons

Elon Musk posted a candid admission on his social media platform X on June 9, declaring that he had been “clearly wrong” about Anthropic. The statement marked a notable reversal from his earlier skepticism toward the AI company.

In September, Musk had written, “Winning was never in the set of possible outcomes for Anthropic,” reflecting his view at the time that the startup had lacked the foundation or even the trajectory to succeed in what is an incredibly intense race for advanced artificial intelligence.

Musk’s latest post came amid discussion of Anthropic’s reliance on external compute resources. He praised the company’s progress, stating that Anthropic is “obviously currently the leader in AI” and that “no company has released a model as good as Mythos/Fable,” with expectations of a strong follow-up in Mythos 2.

The tone shifted dramatically from dismissal to acknowledgement of superior performance.

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The context of Musk’s comments added significance. Anthropic has been operating under a recent compute deal with SpaceXAI, Musk’s AI infrastructure-focused venture. The pair entered a short-term GPU lease agreement initiated in May, providing Anthropic access to critical computing power for training and deploying its frontier models.

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SpaceXAI signs agreement with Anthropic for massive AI supercomputer access

Some observers had speculated that Musk could leverage this dependency to disadvantage a rival. Musk directly addressed the possibility, writing, “I would never cut them off in a way that hurt them badly, even as a competitor. That’s not my style.”

To support his commitment to ethical competition, Musk referenced concrete examples from his other companies. Tesla famously open-sourced its entire portfolio of electric vehicle patents in 2014. The move was designed to accelerate the global adoption of sustainable transportation technology rather than protect proprietary advantages.

Tesla also made its Supercharger network available to competing electric vehicle manufacturers, transforming what could have remained an exclusive charging ecosystem into a shared infrastructure that benefits the broader industry and reduces barriers for EV adoption.

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Musk further pointed to SpaceX’s practices, noting that the company launches satellites for competing commercial systems “with no increase in price or use of unfair terms.” He extended the principle to his social platform, observing that “even my worst enemies attack me on this platform,” underscoring preference for open discourse over retaliation.

These examples have illustrated Musk’s long-standing philosophy that long-term technological progress is best served by open competition and infrastructure sharing rather than leveraging market power to stifle rivals. In the fast-evolving AI sector, where compute resources and model capabilities determine leadership, Musk’s stance suggests a willingness to compete on innovation and performance alone.

Musk’s admission arrives as SpaceXAI itself advances its own frontier models while maintaining business relationships across the ecosystem. By publicly correcting his earlier assessment and reaffirming principles of fair play, Musk highlights a model of competition that prioritizes advancement of the field over short-term tactical advantages.

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