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SpaceX vs. Blue Origin: The bickering titans of new space

Close up of SpaceX Falcon 9 ahead of SES-11 mission from Cape Canaveral. (Tom Cross/Teslarati)

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In the past three years, SpaceX has made incredible progress in their program of reusability. In the practice’s first year, the young space company led by serial tech entrepreneur Elon Musk has performed three successful commercial reuses of Falcon 9 boosters in approximately eight months, and has at least two more reused flights scheduled before 2017 is out. Blue Origin, headed and funded by Jeff Bezos of Amazon fame, is perhaps most famous for its supreme confidence, best illustrated by Bezos offhandedly welcoming SpaceX “to the club” after the company first recovered the booster stage of its Falcon 9 rocket in 2015.

Blue Origin began in the early 2000s as a pet project of Bezos, a long-time fan of spaceflight and proponent of developing economies in space. After more than a decade of persistent development and increasingly complex testbeds, Blue Origin began a multi-year program of test flights with its small New Shepard launch vehicle. Designed to eventually launch tourists to the veritable edge of Earth’s atmosphere in a capsule atop it, New Shepard began its test flights in 2015 and after one partial failure, has completed five successful flights in a row. The space tourism company has subtly and not-so-subtly belittled SpaceX’s accomplishments over the last several years, and has engendered a fair bit of hostility towards it as a result.

Admittedly, CEO Elon Musk nurtured high expectations for the consequences of reuse, and has frequently discussed SpaceX’s ambition to reduce the cost of access to orbit by a factor of 10 to 100. However, after several reuses, it is clear that costs have decreased no more than 10-20%. What gives?

Well, Musk’s many comments on magnitudes of cost reduction were clearly premised upon rapid and complete reuse of both stages of Falcon 9, best evidenced by a concept video the company released in 2011.

The reality was considerably harder and Musk clearly underestimated the difficulty of second stage reuse, something he himself has admitted. COO Gwynne Shotwell was interviewed earlier this summer and discussed SpaceX’s updated approach to complete reusability, and acknowledged that second stage reuse was no longer a real priority, although the company will likely attempt second stage recovery as a validation of future technologies. Instead of pursuing the development of a completely reusable Falcon 9, SpaceX is instead pushing ahead with the development of a much larger rocket, BFR. BFR being designed to enable the sustainable colonization of space by realizing Musk’s original ambition of magnitudes-cheaper orbital launch capabilities.

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Competition on the horizon?

Meanwhile, SpaceX’s only near-term competitor interested in serious reuse has made gradual progress over the last several years, accelerating its pace of development more recently. Blue Origin’s second New Shepard vehicle, designed to serve the suborbital space tourism industry, conducted an impressive five successful launches and landings over the course of 2016 before being summarily retired. NS2’s antecedent suffered a failure while attempting its first landing and was destroyed in 2015, but Blue learned quickly from the issues of Shepard 1 and has already shipped New Shepard 3 to its suborbital launch facilities near Van Horn, Texas. While NS3 is aiming for an inaugural flight later this year, NS4 is under construction in Kent, Washington and could support Blue’s first crewed suborbital launches in 2018.

More significant waves were made with an announcement in 2016 that Blue was pursuing development of a partially reusable orbital-class launch vehicle, the massive New Glenn. On paper, New Glenn is quite a bit larger than even SpaceX’s Falcon 9, and appears to likely be more capable than the company’s “world’s most powerful rocket” while completely recovering its boost stage. In a completed, manufactured, and demonstrably reliable form, New Glenn would be an extraordinarily impressive and capable launch vehicle that could undoubtedly catapult Blue Origin into position of true competition with SpaceX’s reusability efforts.

 

However, while Blue Origin executives brag about “operational reusability” and tastelessly lampoon efforts that “decided to slap some legs on [to] see if [they] could land it”, the unmentioned company implicated in those barbs has begun to routintely and commercially reuse orbital-class boosters five times the size of Blue’s suborbital testbed, New Shepard.

Apples to oranges

The only point at which Blue Origin poses a risk to SpaceX’s business can be found in a comparison of funding sources. SpaceX first successes (and failures) were funded out of Elon Musk’s own pocket, but nearly all of the funding that followed was won through competitive government contracts and rounds of private investment. To put it more simply, SpaceX is a business that must balance costs and returns, while Blue Origin is funded exclusively out of billionaire CEO Jeff Bezos’ pocket.

As a result of being completely privately funded, Bezos’ deep pockets could render Blue more flexible than SpaceX when pricing launches. If Blue chooses to aggressively price New Glenn by accounting for booster reusability, it could pose a threat to SpaceX’s own business strategy. If SpaceX is unable to recoup its investment in reusability before New Glenn is regularly conducting multiple commercial missions per year, likely no earlier than 2021 or 2022, SpaceX’s Falcon 9 pricing could be rendered distinctly noncompetitive.

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However, this concern seems almost entirely misplaced. SpaceX has half a decade of experience mass-producing orbital-class (reusable) rockets, (reusable) fairings, and propulsion systems, whereas Blue Origin at best has minimal experience manufacturing a handful of suborbital vehicles over a period of a few years. Blue has a respectable amount of experience with their BE-3 hydrolox propulsion system, and that will likely transfer over to the BE-3U vacuum variant to be used for New Glenn’s third stage. The large methalox rocket engine (BE-4) that will power New Glenn’s first stage also conducted its first-ever hot-fire just weeks ago, a major milestone in propulsion development but also a reminder that BE-4 has an exhaustive regime of engineering verification and flight qualification testing ahead of it.

Perhaps more importantly, the company’s relative success with New Shepard’s launch, recovery, and reuse has not and cannot move beyond small suborbital hops, and thus cannot provide the experience at the level of orbital rocketry. New Shepard is admittedly capable of reaching an altitude of 100km, but the suborbital vehicle’s flight regime does not require it to travel beyond Mach 4 (~1300 m/s). The first stage of Falcon 9, however, is approximately four times as tall and three times the mass of New Shepard, and boosters attempting recovery during geostationary missions routinely reach almost twice the velocity of New Shepard, entering the thicker atmosphere at more than 2300 m/s (1500-1800 m/s for LEO missions). Falcon 9’s larger mass and velocity translates into intense reentry heating and aerodynamic forces, best demonstrated by the glowing aluminum grid fins that can often be seen in SpaceX’s live coverage of booster recovery. Blue Origin’s New Glenn concept is extremely impressive on paper, but the company will have to pull off an extraordinary leap of technological maturation to move directly from suborbital single-stage hops to multi-stage orbital rocketry. Blue’s accomplishments with New Shepard are nothing to scoff at, but they are a far cry from routine orbital launch services.

SpaceX’s future fast approaches

Translating back to the new establishment, Falcon 9 will likely remain SpaceX’s workhorse rocket for some five or more years, at least until BFR can prove itself to be a reliable and affordable replacement. This change in focus, combined with the downsides of second stage recovery and reuse on a Falcon 9-sized vehicle, means that SpaceX will ‘only’ end up operationally reusing first stages and fairings from the vehicle. The second stage accounts for approximately 20-30% of Falcon 9’s total cost, suggesting that rapid and complete reuse of the fairing and first stage could more than halve its ~$62 million price. Yet this too ignores another mundane fact of corporate life SpaceX must face. Its executives, Musk included, have lately expressed a desire to at least partially recoup the ~$1 billion that was invested to develop reuse. Assuming a partial 10% reduction in cost to reuse customers and profit margins of 50% with rapid and total reuse of the first stage and fairing, 20 to 30 commercial reuses would recoup most or all of SpaceX’s reusability investment.

Musk recently revealed that SpaceX is aiming to complete 30 launches in 2018, and that figure will likely continue to grow in 2019, assuming no major anomalies occur. Manufacturing will rapidly become the main choke point for increased launch cadence, suggesting that drastically higher cadences will largely depend upon first stage reuse with minimal refurbishment, which just so happens to be the goal of the Falcon 9’s upcoming Block 5 iteration. Even if the modifications only manage a handful of launches without refurbishment, rather than the ten flights being pursued, each additional flight without maintenance will effectively multiply SpaceX’s manufacturing capabilities. More bluntly: ten Falcon 9s  capable of five reflights could do the same job of 50 brand new rockets with 1/5th of the manufacturing backend.

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Assuming that upcoming reuses proceed without significant failures and Falcon 9 Block 5 subsumes all manufacturing sometime in 2018 or 2019, it is entirely possible that SpaceX will undergo an extraordinarily rapid phase change from expendability to reusability. Mirroring 2017, we can imagine that SpaceX’s Hawthorne factory will continue to churn out at least 10 to 20 Block 5 Falcon 9s over the course of 2018. Assuming 5 to 10 maintenance-free reuses and a lifespan of as many as 100 flights with intermittent refurb, a single year of manufacturing could provide SpaceX with enough first stages to launch anywhere from 50 to 2000 missions. The reality will inevitably find itself somewhere between those extremely pessimistic and optimistic bookends, and they of course do not account for fairings, second stages, or expendable flights.

If we assume that the proportional cost of Falcon 9’s many components very roughly approximates the amount of manufacturing backend needed to produce them, downsizing Falcon 9 booster production by a factor of two or more could free a huge fraction of SpaceX’s workforce and floor space to be repurposed for fairing and second stage production, as well as the company’s Mars efforts. Such a phase change would also free up a considerable fraction of the capital SpaceX continually invests in its manufacturing infrastructure and workforce, capital that could then be used to ready SpaceX’s facilities for production and testing of its Mars-focused BFR and BFS.

“Gradatim ferociter”

It cannot be overstated that the speculation in this article is speculation. Nevertheless, it is speculation built on real information provided over the years by SpaceX’s own executives. Rough estimates like this offer a glimpse into a new launch industry paradigm that could be only a year or two away and could allow SpaceX to begin aggressively pursuing its goal of enabling a sustainable human presence on Mars and throughout the Solar System.

Blue Origin’s future endeavors shine on paper and their goal of enabling millions to work and live space are admirable, but the years between the present and a future of routine orbital missions for the company may not be kind. The engineering hurdles that litter the path to orbital rocketry are unforgiving and can only be exacerbated by blind overconfidence, a lesson that is often only learned the hard way. Blue Origin’s proud motto “Gradatim ferociter” roughly translates to “Step by step, ferociously.” One can only hope that some level of humility and sobriety might temper that ferocity before customers entrust New Glenn with their infrastructural foundations and passengers entrust New Shepard with their lives.

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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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Elon Musk hints at Tesla Cybercab’s next market

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(Credit: Teslarati)

After launching in Austin, Texas, last week, Tesla is looking to expand the Cybercab to new parts of the United States in an effort that will see the driverless, steering wheel-less, and pedal-less vehicle chauffeur people around as part of the Robotaxi ride-hailing service.

However, the expansion will go far beyond the United States, and CEO Elon Musk revealed he hopes Europe will be the next market where Cybercab will be operational.

Musk has publicly expressed hope that Tesla’s Cybercab robotaxi will reach Europe in the near future.

On September 8, Tesla’s Chief Executive quoted a German rider who had just completed a trip in Austin, Texas, and wrote that he hoped the vehicle would not take years to arrive in Germany. Musk replied with a short but notable message: “Hopefully soon in Europe too.”

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The comment arrived only days after Tesla opened Cybercab ride-hailing to the public in Austin. The two-seat vehicle has no steering wheel or pedals and relies entirely on Tesla’s Full Self-Driving software. Early passengers have described the rides as quiet, smooth, and more stylish than competing robotaxis such as Waymo.

Austin is currently the only city where members of the public can hail a Cybercab through Tesla’s Robotaxi app. The initial fleet is small; Texas registration records show only a few dozen of the purpose-built vehicles on the road.

Tesla set to open Cybercab rides to the public, with no steering wheel or pedals

Tesla has also been operating a larger number of conventional Model Y robotaxis in the same area, but the Cybercab itself represents the company’s first dedicated, controls-free taxi design.

Europe presents a different regulatory picture. The European Union does not permit manufacturers to self-certify vehicles the way Tesla did in the United States.

Type-approval rules and a small-series limit of 1,500 automated vehicles per type per year apply across the bloc.

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Supervised Full Self-Driving has gained provisional approval in several member states through national recognition of Dutch certification, yet unsupervised robotaxi operation remains a separate and more distant step. Tesla has not announced a European launch city, date, or approval pathway for the Cybercab.

Musk himself has previously cautioned that the company does not control European regulators. In an earnings call earlier in 2026, he noted that even supervised FSD took an “immense amount of time” to clear and that unsupervised service would be “somewhat at the mercy of the governments in Europe and the EU.”

The latest social-media remark therefore functions more as an expression of intent than a timetable.

If the Cybercab eventually reaches European streets, it would mark a significant expansion of Tesla’s robotaxi ambitions beyond the United States. For now, the vehicle remains an Austin-only experience, and the gap between Musk’s hope and actual deployment will be decided by regulators rather than by engineering alone.

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Tesla Cybercab improvements are already on the minds of company engineers

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Credit: Tesla Europe & Middle East | X

Tesla Cybercab might have just rolled out to the public as it entered the company’s Robotaxi suite in Austin this past week. However, the vehicle might already be on its way to becoming even better, as the company is asking riders to describe what they’d like to see improved with the Cybercab.

Tesla sent a rider experience survey to Cybercab passengers only days after paid rides began in Austin. The questionnaire asks how satisfied riders were with the overall trip. Then it requests star ratings for availability and wait time, door functionality, vehicle touchscreen, mobile app experience, seat comfort, interior space, ride comfort, cleanliness, and cargo space.

A later section asks which features riders would most like to have and allows selection of up to three items from a list that includes heated seats, ventilated seats, fully reclining seats, a tray table, a wireless phone charger, a better sound system, and more storage. Respondents may also choose none of these or write in another idea. The survey closes with a recommendation score from zero to ten.

This rapid request for input illustrates Tesla’s habit of treating early users as collaborators rather than mere customers. The company has long refined vehicles through software updates and hardware changes informed by real-world use across its passenger cars.

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Collecting structured opinions so soon after commercial service started shows the same mindset applied to a purpose-built autonomous taxi. The questions themselves reveal an openness to cabin changes even after the first vehicles reached public streets, which is no surprise.

Tesla has always hoped to cater a great experience to anyone in its vehicles, which is why so many fan-requested features have made it into its vehicles.

Replies already circulating online favor reclining seats, tray tables, wireless charging, improved audio, and extra room when seats fold back.

Tesla Cybercabs narrowly miss deadly Amazon cargo plane crash

Those preferences point toward comfort upgrades that Tesla can implement in later production batches or through cabin revisions. Because the Cybercab is designed around software first principles, many requested amenities can arrive faster than in traditional automakers.

Tesla’s willingness to survey riders immediately after launch therefore makes near-term cabin and experience improvements likely as the team reviews responses and iterates toward a more refined robotaxi people will choose daily.

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Tesla Cybertruck engineer reveals new changes in ‘constantly evolving’ pickup

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Credit: Joe Tegtmeyer | YouTube

Tesla Cybertruck Lead Engineer Wes Morrill revealed the company has made several changes to the all-electric pickup, which he calls a “living thing, constantly evolving and improving.”

Cybertruck is manufactured at Tesla’s Gigafactory Texas just outside of Austin, and over the past few years, Tesla has continued to make small changes to the pickup to improve everything from cost, reliability, serviceablility, and manufacturability.

“The finish line isn’t getting to production. A product is a living thing, constantly evolving and improving,” Morrill added.

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Some of those changes are yet to be revealed, but perhaps the most notable one was the change Tesla made to the aero shield that sits underneath the truck. In the past, it was aluminum, but now the Cybertruck is using a self-reinforcing polypropylene.

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Morrill said that the polypropylene is “stretched into fibers and then laminated into the form,” and is much more durable, much lighter, and significantly cheaper than aluminum when it is manufactured this way.

It also enabled some improvements in the geometry of the Cybertruck, improving the manufacturing around the bolts and edges, in addition to minor form changes. These all benefitted the Cybertruck in more ways than one: specifically with durability and improved drag.

Typically, Teslas are not necessarily identified by model year because these changes are fluid and occur when the company sees fit to implement them. It is not like other automotive companies, which usually make sweeping manufacturing changes when building a new model year.

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Instead, Teslas are recognized by their “generation” or “era.” For example, those with a newer Model Y might refer to their car as a “Juniper.” This is the same with Model 3, as many refer to the new body style as the “Highland.”

Tesla’s manufacturing changes are proof of the company’s constant need to improve its products and move things forward with its vehicles. There is no need to drag one’s feet and wait until next year if the product can be made better right now, and that’s precisely what Tesla did with the Cybertruck.

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