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SpaceX’s next Falcon Heavy launch and landing could be more than a year away

Falcon Heavy launched for the third time ever on June 25th, successfully recovering 2 of 3 boosters and placing 24 satellites in their proper orbits. Falcon Heavy Flight 4 could be more than 16 months away. (SpaceX)

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According to comments made by US Air Force officials prior to SpaceX’s latest Falcon Heavy launch, the payload assigned to the military’s first fully-certified Falcon Heavy has been swapped with another, although the mission’s late-2020 launch target remains relatively unchanged.

This new information comes on the heels of the June 25th launch of Space Test Program 2 (STP-2), SpaceX’s third successful Falcon Heavy mission and a huge milestone for the rocket’s future as a competitive option for US military launches. Perhaps most importantly, it confirms – barring a surprise launch contract or internal Starlink mission – that Falcon Heavy’s next (and fourth) launch is unlikely to occur until late next year, a gap of at least 15-17 months.

Announced roughly four months after Falcon Heavy’s inaugural February 2018 launch debut, the USAF contracted with SpaceX to launch the ~6350 kg (14,000 lb) AFSPC-52 satellite no earlier than (NET) September 2020. In February 2019, Department of Defense contract announcements revealed that SpaceX had been awarded three military launch contracts, two for the National Reconnaissance Office (NROL-85 & NROL-87) and one for the USAF (AFSPC-44), all tentatively scheduled to launch in 2021.

First reported by Spaceflight Now, Col. Robert Bongiovi – director of the launch enterprise systems directorate at the Air Force’s Space and Missile Systems Center (AFSMC) – recently indicated that AFSPC-44 – not AFSPC-52 – is now scheduled to be the US military’s first post-certification Falcon Heavy launch. 52 and 44 have essentially swapped spots, with AFSPC-44 moving forward to NET Q4 (fall) 2020 while AFSPC-52 has been delayed to NET Q2 (spring) 2021.

Falcon Heavy lifts off from Pad 39A for the third time ever. (Tom Cross)

The trouble with launch gaps

Although Bongiovi did not explicitly state that AFSPC-44 will be SpaceX’s next Falcon Heavy launch, there are no publicly-disclosed missions set to launch on the rocket in the interim. That could theoretically change, especially if SpaceX has plans to launch the massive rocket in support of an internal Starlink mission or even something more exotic, but the loss of both Block 5 center core B1055 and B1057 means that the company will have to build an entirely new center core.

SpaceX’s Falcon Heavy lead times are far superior to competitor ULA’s Delta IV Heavy production line, but the process of manufacturing new center cores is still quite lengthy. Critically, Falcon Heavy Block 5 center cores require strengthened octawebs, custom interstages, and propellant tanks that are significantly thicker than those used on Falcon 9. For all intents and purposes, a center core is a totally different rocket relative to a Falcon 9 booster, the latter being SpaceX’s primary focus at the company’s assembly line-style Hawthorne factory. It’s theoretically possible for a dedicated Falcon Heavy center core build to be expedited or leapfrogged forward in the production queue, but most long-lead Falcon 9 booster hardware physically cannot be redirected to speed up center core production.

An overview of SpaceX’s Hawthorne factory floor in early 2018. (SpaceX)

Unless SpaceX was already in the process of building a new center core prior B1057’s unsuccessful landing attempt, it’s safe to assume that the next custom Falcon Heavy booster is unlikely to be completed until early 2020, if not later. In theory, this means that Falcon Heavy could be dormant for no less than 16 months between STP-2 and its next launch. Traditionally, that sort of lengthy gap between launches has been frowned upon by NASA, ULA, and oversight groups like GAO. If a given rocket doesn’t launch for a year or more, it can potentially pose a risk to reliability and raise costs as its production and launch teams have no satisfactory way to fully preserve their technical expertise.

This can be compared to attempting to become an expert at a musical instrument while only having access to said instrument one or two months a year, essentially impossible. In fact, at one point, NASA hoped to require its Space Launch System (SLS) rocket be able to launch no less than once per year, partly motivated by a desire to mitigate some of the deterioration that can follow extremely low launch cadences. Years later, financial constraints and years upon years of delays and budget overruns have made such a cadence effectively impossible for SLS/Orion, but the fact remains that launching a rocket just once every 18-24 months is likely to inflate both costs and risks.

The first Block 5 version of Falcon Heavy prepares for its launch debut.
Falcon Heavy Flight 2, April 2019. (SpaceX)
Falcon Heavy Flight 3, June 2019. Both side boosters (left and right) are flight-proven and launch as part of Flight 2 just ~75 days prior. (SpaceX)

Thankfully, SpaceX’s Falcon Heavy could scarcely be more different than NASA’s SLS and the retired Space Shuttle it derives most of its hardware from. Even if all things are held equal and not flying a Falcon Heavy center core for 16+ months increases risk and cost, center cores are still heavily derived from Falcon 9 booster technology, including plumbing, avionics, attitude control thrusters, Merlin 1D engines, landing legs, and launch facilities.

Furthermore, the center core is just one of five distinct assemblies that make up a given Falcon Heavy. Both side boosters are effectively Falcon 9 Block 5 boosters with nose cones instead of interstages and slight modifications to support booster attachment hardware, while the upper stage and payload fairing are the same for all Falcon launches. In other words, SpaceX’s workforce will continue to build, launch, land, and reuse dozens of Falcon 9 boosters – as well as upper stages payload fairings – between now and Falcon Heavy Flight 4, even if it’s NET Q4 2020. In a worst-case scenario, SpaceX production and launch staff will be unfamiliar and inexperienced with maybe 20% of Falcon Heavy – at least in a very rough sense. Even then, much of that unfamiliarity may still be tempered by the fact that Falcon Heavy center cores share a large amount of commonality with the Falcon 9 first stages SpaceX’s workforce will remain deeply familiar with.

Indeed, Falcon Heavy’s second launch has already demonstrated this to some extent, occurring without issue more than 14 months after the rocket’s inaugural launch. It seems that the only real loss incurred by a ~16-month delay between Flights 3 and 4 will be having to wait another year (or more) to witness Falcon Heavy’s next launch.

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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 Robotaxi-only Superchargers are starting to appear

For Tesla, these Robotaxi-only Superchargers represent more than convenient parking spots. They are the first bricks in a vertically integrated autonomy platform—vehicles, energy, and software working in seamless concert. 

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Credit: Tesla

Tesla is starting to build out Robotaxi-only Superchargers as the company is truly leaning on its Full Self-Driving and autonomy efforts to solve passenger travel.

Last week, the company filed pre-permits in Arizona’s East Valley for two dedicated, non-public charging sites stocked with next-generation V4 Superchargers. The filings mark the first visible evidence of purpose-built infrastructure exclusively for autonomous Tesla vehicles, as they state they are not for public use.

In Chandler, Tesla plans to install 56 V4 stalls on an industrial parcel along South Roosevelt Avenue. Site documents describe a high-capacity setup supported by new SRP transformers, switching cabinets, and upgrades to existing underground lines.

A second site in Mesa, located at 5349 E Main Street in another industrial zone, carries the same private-use designation. Both locations sit well away from public roads and customer traffic, ensuring the chargers serve only Tesla’s internal fleet.

The sites were spotted by Supercharger observer MarcoRP.

Phoenix’s East Valley offers an ideal launchpad for Robotaxi Supercharging: the location has a clean, grid-like street layout and year-round mild weather that minimizes camera degradation. Additionally, Arizona has welcomed self-driving pilots since Waymo’s early days.

By securing private depots now, Tesla can optimize charging cycles, reduce downtime, and maintain full control over vehicle hygiene and security, critical factors for high-utilization Robotaxi operations.

The type of Supercharger is telling as well, as they are V4, Tesla’s fastest and most efficient buildout.

V4 stalls deliver faster power and support bidirectional charging, features that will let idle Robotaxis feed energy back to the grid during off-peak hours. Because the sites are closed to the public, Tesla avoids congestion, vandalism risks, and the scheduling conflicts that plague shared stations.

The timing is telling. With unsupervised Full Self-Driving hardware already rolling out across the lineup and Cybercab production targets looming, Tesla is shifting from vehicle development to ecosystem readiness.

Charging infrastructure has historically been the gating factor for ride-hailing scale; building it ahead of the vehicles signals confidence that regulatory and technical hurdles are nearing resolution.

Tesla has been spotted testing Cybercab units in Arizona over the past few months, as well.

Interestingly, the permits show V4 Superchargers in the plans, although Cybercab will likely utilize wireless charging:

Tesla Cybercab spotted with interesting charging solution, stimulating discussion

For Tesla, these Robotaxi-only Superchargers represent more than convenient parking spots. They are the first bricks in a vertically integrated autonomy platform—vehicles, energy, and software working in seamless concert.

It appears Tesla is preparing to begin building out Robotaxi-only Superchargers to avoid the congestion and keep its autonomous fleet charged up to get ride-hailers to their destinations.

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ARK’s SpaceX IPO Guide makes a compelling case on why $1.75T may not be the ceiling

ARK Invest breaks down six reasons SpaceX’s $1.75 trillion IPO valuation may be justified.

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ARK Invest, which holds SpaceX as its largest Venture Fund position at 17% of net assets, has published a detailed investor guide to why a SpaceX IPO may be grounded in a $1.75 trillion target valuation.

The financial case starts with Starlink, SpaceX’s satellite internet constellation, which has surpassed 10 million active subscribers globally as of early 2026, with 2026 revenue projected to exceed $20 billion. ARK’s research puts the total satellite connectivity market opportunity at roughly $160 billion annually at scale, and Starlink is adding customers faster than any telecom network in history. That growth alone would justify a substantial valuation.

Additionally,  ARK notes that SpaceX has reduced the cost per kilogram to orbit from roughly $15,600 in 2008 to under $1,000 today through reusable Falcon 9 hardware. A fully operational Starship targeting sub-$100 per kilogram would represent a significant cost decline and open markets that do not currently exist. SpaceX executed a staggering 165 missions in 2025 and now accounts for approximately 85% of all global orbital launches. That infrastructure position took decades to build and would be nearly impossible to replicate at comparable cost.

SpaceX officially acquires xAI, merging rockets with AI expertise

The February 2026 merger with xAI added a layer to the valuation that straightforward financial models struggle to capture. ARK argues that at sub-$100 launch costs, orbital data centers could deliver compute roughly 25% cheaper than ground-based alternatives, without power grid delays, permitting friction, or land constraints. Musk has stated a goal of deploying 100 gigawatts of AI computing capacity per year from orbit.

The $1.75 trillion figure itself is not a conventional earnings multiple. At roughly 95x trailing revenue, it prices in Starlink’s adoption curve, Starship’s cost trajectory, and the orbital compute thesis together. The public S-1 prospectus, due at least 15 days before the June roadshow, will give investors their first complete look at the financials to test those assumptions. ARK’s position is that the track record earns the benefit of the doubt. Fully reusable rockets were considered unrealistic for years. Starlink was considered financially unviable. Both happened on timelines that surprised skeptics.

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Ford CEO Farley says Tesla is not who to look at for EV expertise

Interestingly, Farley has been one of the most hellbent CEOs in terms of a legacy automaker standpoint to push the EV effort. It did not go according to plan, as Ford took a $19.5 billion charge and retreated from its EV push in late 2025.

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Ford CEO Jim Farley said in a recent podcast interview that Tesla is not who Americans should look at to beat Chinese carmakers.

The comments have sparked quite a bit of outrage from Tesla fans on X, the social media platform owned by Elon Musk.

Farley said that Chinese automakers are better examples of how to beat competitors. He said (via the Rapid Response Podcast):

“If you’re an American and you want us to beat the Chinese in the car business, you’re all going to want to pay attention, not necessarily to Tesla. Nothing against Tesla—they’ve been doing great—but they really don’t have an updated vehicle. The best in the business for us, cost-wise and competition-wise, supply chain, manufacturing expertise, and the I.P. in the vehicle, was really BYD. In this next cycle of EV customers in the U.S., they want pickups and utilities and all these different body styles. But they want them at $30,000, not $50,000. Like the first inning, they want them affordably.”

Despite Farley’s synopsis, it is worth mentioning that Tesla had the best-selling passenger vehicle in the world last year, and in China in March, as the Model Y continued its global dominance over other vehicles.

Musk responded to Farley’s comments by stating:

“This is before Supervised FSD is approved in China. Limiting factor is production output in Shanghai.”

Interestingly, Farley has been one of the most hellbent CEOs in terms of a legacy automaker standpoint to push the EV effort. It did not go according to plan, as Ford took a $19.5 billion charge and retreated from its EV push in late 2025.

Ford cancels all-electric F-150 Lightning, announces $19.5 billion in charges

Instead, Ford is “doubling down on its affordable” EVs and said it would pivot from its previous plans.

Reaction from Tesla fans was pretty much how you would expect. Many said they have lost a lot of respect for Farley after his comments; others believe he is the last CEO anyone should be taking advice on EVs from.

Nevertheless, Farley’s plans are bold and brash; many consider Tesla the most ideal company to replicate EV efforts from. It will be interesting to see if Ford can rebound from this big adjustment, and hopefully, Farley’s plans to replicate efforts from BYD work out the way he hopes.

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