News
SpaceX’s next Falcon Heavy launch may feature record-breaking center core landing
Thanks to a temporary reopening of the US federal government, SpaceX was finally able to continue the process of filing FCC and FAA paperwork needed to acquire permits for upcoming launches, including Falcon Heavy.
One such filing related to the first operational Falcon Heavy launch has revealed a fairly impressive statistic: comprised of three first stage boosters, SpaceX indicated that Falcon Heavy’s center core will attempt to land on drone ship Of Course I Still Love You (OCISLY) nearly 1000 km (600 mi) away from its launch site, easily smashing the record for the greatest distance traveled by a Falcon booster in flight.
Of Course I Still Love You will be positioned a record ~965km downrange. That's nearly 300km further that the previous greatest distance of 681km, set during the Eutelsat-117WB mission in June 2016. (The landing was a failure, with the booster running out of LOX!) https://t.co/RECKjMtd37
— Gav Cornwell (@SpaceOffshore) January 28, 2019
The same FCC filings also revealed a No Earlier Than (NET) launch date: March 7, 2019. Originally targeted for mid to late February, the complexity and logistical challenges of building, shipping, testing, and delivering two side boosters, a center core, one upper stage, and a payload fairing from SpaceX’s California factory to its Texas test facilities and Florida launch pad unsurprisingly took a small toll on the launch’s aspirational schedule. Nevertheless, if the launch data actually holds to March 7th, SpaceX will not have missed the mark by much considering that this Falcon Heavy – based on new and more powerful Block 5 boosters – is likely a significant departure from the Block 2/Block 3 hardware that has flight heritage from the triple-booster rocket’s Feb. 2018 launch debut.

Just shy of a year after Falcon Heavy’s launch debut, it appears that the rocket’s second and third launches were pushed back by a fundamental lack of production capacity. In other words, SpaceX’s Hawthorne rocket factory simply had to focus on more critical priorities in the 6-9 months that followed the demo mission. At nearly the same time as Falcon Heavy was lifting off for the first time, SpaceX’s world-class production crew was in the midst of manufacturing the first upgraded Falcon 9 Block 5 booster (B1046) and wrapped up final checkouts just 10 days after Heavy’s Feb. 6 launch debut, sending the pathfinder rocket to McGregor, Texas for the first static fire of a Block 5 booster.
In the meantime, SpaceX’s decision to intentionally expend otherwise recoverable reused Falcon boosters after their second launches meant that the company’s fleet of flightworthy rockets was rapidly approaching zero, a move CEO Elon Musk specifically indicated was meant to make room for Block 5, the future (and final form) of the Falcon family. SpaceX’s busy 2018 launch manifest and multiple critical missions for the US government were thus balanced on the success, reliability, and rapid production of a serious number of Merlin engines, boosters, and upper stages. This included B1051 – the first explicitly crew-rated Falcon 9 – and B1054, the first SpaceX rocket rated to launch high-value US military (specifically Air Force) satellites. However, SpaceX also needed to produce a cadre of Falcon 9 boosters capable of easy reuse to support the dozen or so other commercial launches on the manifest.
- Falcon 9 B1046 is processed in Port of LA shortly after its third successful launch and landing, December 2018. (Pauline Acalin)
- Falcon 9 B1047 is pictured here beneath an upper stage and satellite Es’hail-2 prior to its second launch. (Tom Cross)
- Falcon 9 B1048 returned to Port of Los Angeles aboard drone ship Just Read The Instructions after its first launch. July 27. (Pauline Acalin)
- Falcon 9 B1049 returned to Port of Los Angeles after its second successful launch and landing in four months. (Pauline Acalin)
- Falcon 9 B1050 is seen here just after liftoff. GPS III SV01’s Falcon 9 will feature no grid fins or landing legs. ☹ (Tom Cross)
- Falcon 9 B1051 and Crew Dragon vertical at Pad 39A. (SpaceX)
That gamble ultimately paid off, with Block 5 performing admirably and supporting a reasonable – if not record-breaking – rate of reuse. SpaceX successfully launched B1054 for the USAF, completed B1051 (now at Pad 39A awaiting NASA’s go-ahead), and built enough reusable Block 5 boosters to support nine additional commercial missions in 2018. In hindsight, barring an assumption of a truly miraculous and unprecedented Falcon booster production rate, Falcon Heavy’s next launches were almost guaranteed to occur no fewer than 6-12 months after the rocket’s launch debut – SpaceX’s entire launch business depended on building 5+ unrelated Falcon 9 boosters, while Falcon Heavy customers Arabsat and the USAF were unlikely to be swayed to launch on flight-proven hardware so early into Block 5’s career.
https://twitter.com/_TomCross_/status/1048483536917823488
All cylinders firing
Once Falcon 9 B1054 departed SpaceX’s Hawthorne factory (see above) in early October, it appears that the company’s production team pivoted directly to integrating and shipping the next three (or more) Falcon Heavy boosters back to back for the rocket’s second and third launches. The first new side booster departed the factory in mid-November, followed by a second side booster in early December and a (presumed but highly likely) center core at the turn of 2019. Both side boosters have been static-fired in Texas and are now at SpaceX’s Florida facilities, while the center core either just completed its Texas static fire testing or is already on its way East.
- SpaceX’s Falcon Heavy Block 5 side booster is pictured here in Texas in November 2018. (Teslarati/Aero Photo)
- The second (and third) flight of Falcon Heavy is even closer to reality as a new side booster heads to Florida after finishing static fire tests in Texas. (Reddit /u/e32revelry)
- SpaceX Facebook group member Joshua Murrah captured the second Falcon Heavy side booster to arrive in Florida in the last month. (Joshua Murrah, 01/17/19)
- The next Falcon Heavy’s first side booster delivery was caught by several onlookers around December 21. (Instagram)
- A booster – likely the next Falcon Heavy center core – was vertical at McGregor’s S1 static fire stand. (Instagram /u/tcryguy)
- A booster – either Falcon Heavy’s next center core or a new Falcon 9 – was vertical at SpaceX’s McGregor, TX test facilities on Jan 28. (Instagram /u/n75sd)
- A diagram from a recent SpaceX document offers an idea of what Falcon Heavy Block 5 will look like. (SpaceX)
Once the center core and upper stage make their way to SpaceX’s Kennedy Space Center Pad 39A, the company’s technicians and engineers will be able to integrate the second Falcon Heavy to have ever existed in preparation for a critical static fire test. That could occur as early as February, although the launch debut of Crew Dragon (DM-1) – now NET March from Pad 39A after a relentless string of slips – will likely take precedence over Falcon Heavy and could thus directly interfere with its launch, as the launch pad and transporter/erector (T/E) has to undergo at least a few days of modifications to switch between Falcon 9 and Heavy.
Regardless, the next two Falcon Heavy launches will be well worth the wait. SpaceX’s FCC filings indicate that the center core may travel nearly 1000 km (600 mi) East of Pad 39A to land on drone ship OCISLY after launch, smashing the previous record attempt – during the June 2016 launch of Eutelsat 117WB – of ~700 km (430 mi). That Falcon 9 booster – albeit a less-powerful Block 2 variant – was unsuccessful in its landing attempt, running out of oxidizer seconds before landing. Falcon Heavy’s debut center core also happened to suffer a wholly different but no less fatal anomaly during landing, causing it to miss the drone ship and slam into the Atlantic Ocean at almost half the speed of sound (300 mph/480 km/h).
Looks like early liquid oxygen depletion caused engine shutdown just above the deck pic.twitter.com/Sa6uCkpknY
— Elon Musk (@elonmusk) June 17, 2016
Known for their rocket performance estimates, NASASpaceflight forum user “Orbiter” first pointed out the impressive distance – gathered by mapping coordinates included in SpaceX’s Jan. 28th FCC filing – and estimated that the Falcon Heavy center booster flying a trajectory as implied could be traveling as fast as ~3.5 km/s (2.2 mi/s) at main engine cut-off (MECO), the point at which the booster separates from the upper stage and fairing. This would be a nearly unprecedented velocity for any Falcon booster, let alone a booster with plans to land after launch. Falcon 9 MECO typically occurs at velocities between 1.5 and 2.5 km/s for recoverable missions, while even the recent expendable GPS III launch saw F9 S1’s engines cut off around 2.7 km/s.
Whether that MECO velocity estimate is correct, Falcon Heavy’s NET March launch of the ~6000 kg (13,300 lb) Arabsat 6A satellite is likely to be an exceptionally hot reentry and recovery for the center core, while the rocket’s duo of side boosters will attempt a repeat of the debut mission’s spectacular double-landing at LZ-1.
Elon Musk
Tesla Optimus shows off its newest capability as progress accelerates
Tesla Optimus showed off its newest capability as progress on the project continues to accelerate toward an ultimate goal of mass production in the coming years.
Tesla is still developing Optimus and preparing for the first stages of mass production, where units would be sold and shipped to customers. CEO Elon Musk has always marketed the humanoid robot as the biggest product in history, even outside of Tesla, but of all time.
He believes it will eliminate the need to manually perform monotonous tasks, like cleaning, mowing the lawn, and folding laundry.
However, lately, Musk has revealed even bigger plans for Optimus, including the ability to relieve humans of work entirely within the next 20 years.
JUST IN: Elon Musk says working will be ‘optional’ in less than 20 years because of AI and robotics. pic.twitter.com/l3S5kl5HBB
— Watcher.Guru (@WatcherGuru) November 30, 2025
Development at Tesla’s Artificial Intelligence and Robotics teams has progressed, and a new video was shown of the robot taking a light jog with what appeared to be some pretty natural form:
Just set a new PR in the lab pic.twitter.com/8kJ2om7uV7
— Tesla Optimus (@Tesla_Optimus) December 2, 2025
Optimus has also made several public appearances lately, including one at the Neural Information Processing Systems, or NeurIPS Conference. Some spectators shared videos of Optimus’s charging rig, as well as its movements and capabilities, most interestingly, the hand:
You have to hand it to Elon 🤟 pic.twitter.com/fZKDlmGAbe
— Ric Burton · NeurIPS 2025 (@_ricburton) December 2, 2025
The hand, forearm, and fingers have been one of the most evident challenges for Tesla in recent times, especially as it continues to work on its 3rd Generation iteration of Optimus.
Musk said during the Q3 Earnings Call:
“I don’t want to downplay the difficulty, but it’s an incredibly difficult thing, especially to create a hand that is as dexterous and capable as the human hand, which is incredible. The human hand is an incredible thing. The more you study the human hand, the more incredible you realize it is, and why you need four fingers and a thumb, why the fingers have certain degrees of freedom, why the various muscles are of different strengths, and fingers are of different lengths. It turns out that those are all there for a reason.”
The interesting part of the Optimus program so far is the fact that Tesla has made a lot of progress with other portions of the project, like movement, for example, which appears to have come a long way.
However, without a functional hand and fingers, Optimus could be rendered relatively useless, so it is evident that it has to figure this crucial part out first.
Elon Musk
Elon Musk and Tesla try to save legacy automakers from Déjà vu
Elon Musk said in late November that he’s “tried to warn” legacy automakers and “even offered to license Tesla Full Self-Driving, but they don’t want it,” expressing frustration with companies that refuse to adopt the company’s suite, which will eventually be autonomous.
Tesla has long established itself as the leader in self-driving technology, especially in the United States. Although there are formidable competitors, Tesla’s FSD suite is the most robust and is not limited to certain areas or roadways. It operates anywhere and everywhere.
The company’s current position as the leader in self-driving tech is being ignored by legacy automakers, a parallel to what Tesla’s position was with EV development over a decade ago, which was also ignored by competitors.
The reluctance mirrors how legacy automakers initially dismissed EVs, only to scramble in catch-up mode years later–a pattern that highlights their historical underestimation of disruptive innovations from Tesla.
Elon Musk’s Self-Driving Licensing Attempts
Musk and Tesla have tried to push Full Self-Driving to other car companies, with no true suitors, despite ongoing conversations for years. Tesla’s FSD is aiming to become more robust through comprehensive data collection and a larger fleet, something the company has tried to establish through a subscription program, free trials, and other strategies.
Tesla CEO Elon Musk sends rivals dire warning about Full Self-Driving
However, competing companies have not wanted to license FSD for a handful of speculative reasons: competitive pride, regulatory concerns, high costs, or preference for in-house development.
Déjà vu All Over Again
Tesla tried to portray the importance of EVs long ago, as in the 2010s, executives from companies like Ford and GM downplayed the importance of sustainable powertrains as niche or unprofitable.
Musk once said in a 2014 interview that rivals woke up to electric powertrains when the Model S started to disrupt things and gained some market share. Things got really serious upon the launch of the Model 3 in 2017, as a mass-market vehicle was what Tesla was missing from its lineup.
This caused legacy companies to truly wake up; they were losing market share to Tesla’s new and exciting tech that offered less maintenance, a fresh take on passenger auto, and other advantages. They were late to the party, and although they have all launched vehicles of their own, they still lag in two major areas: sales and infrastructure, leaning on Tesla for the latter.
I’ve tried to warn them and even offered to license Tesla FSD, but they don’t want it! Crazy …
When legacy auto does occasionally reach out, they tepidly discuss implementing FSD for a tiny program in 5 years with unworkable requirements for Tesla, so pointless. 🤷♂️
🦕 🦕
— Elon Musk (@elonmusk) November 24, 2025
Musk’s past warnings have been plentiful. In 2017, he responded to critics who stated Tesla was chasing subsidies. He responded, “Few people know that we started Tesla when GM forcibly recalled all electric cars from customers in 2003 and then crushed them in a junkyard,” adding that “they would be doing nothing” on EVs without Tesla’s efforts.
Companies laughed off Tesla’s prowess with EVs, only to realize they had made a grave mistake later on.
It looks to be happening once again.
A Pattern of Underestimation
Both EVs and self-driving tech represent major paradigm shifts that legacy players view as threats to their established business models; it’s hard to change. However, these early push-aways from new tech only result in reactive strategies later on, usually resulting in what pains they are facing now.
Ford is scaling back its EV efforts, and GM’s projects are hurting. Although they both have in-house self-driving projects, they are falling well behind the progress of Tesla and even other competitors.
It is getting to a point where short-term risk will become a long-term setback, and they may have to rely on a company to pull them out of a tough situation later on, just as it did with Tesla and EV charging infrastructure.
Tesla has continued to innovate, while legacy automakers have lagged behind, and it has cost them dearly.
Implications and Future Outlook
Moving forward, Tesla’s progress will continue to accelerate, while a dismissive attitude by other companies will continue to penalize them, especially as time goes on. Falling further behind in self-driving could eventually lead to market share erosion, as autonomy could be a crucial part of vehicle marketing within the next few years.
Eventually, companies could be forced into joint partnerships as economic pressures mount. Some companies did this with EVs, but it has not resulted in very much.
Self-driving efforts are not only a strength for companies themselves, but they also contribute to other things, like affordability and safety.
Tesla has exhibited data that specifically shows its self-driving tech is safer than human drivers, most recently by a considerable margin. This would help with eliminating accidents and making roads safer.
Tesla’s new Safety Report shows Autopilot is nine times safer than humans
Additionally, competition in the market is a good thing, as it drives costs down and helps innovation continue on an upward trend.
Conclusion
The parallels are unmistakable: a decade ago, legacy automakers laughed off electric vehicles as toys for tree-huggers, crushed their own EV programs, and bet everything on the internal-combustion status quo–only to watch Tesla redefine the industry while they scrambled for billions in catch-up capital.
Today, the same companies are turning down repeated offers to license Tesla’s Full Self-Driving technology, insisting they can build better autonomy in-house, even as their own programs stumble through recalls, layoffs, and missed milestones. History is not merely rhyming; it is repeating almost note-for-note.
Elon Musk has spent twenty years warning that the auto industry’s bureaucratic inertia and short-term thinking will leave it stranded on the wrong side of technological revolutions. The question is no longer whether Tesla is ahead–it is whether the giants of Detroit, Stuttgart, and Toyota will finally listen before the next wave leaves them watching another leader pull away in the rear-view mirror.
This time, the stakes are not just market share; they are the very definition of what a car will be in the decades ahead.
News
Waymo driverless taxi drives directly into active LAPD standoff
No injuries occurred, and the passengers inside the vehicle were safely transported to their destination, as per a Waymo representative.
A video posted on social media has shown an occupied Waymo driverless taxi driving directly into the middle of an active LAPD standoff in downtown Los Angeles.
As could be seen in the short video, which was initially posted on Instagram by user Alex Choi, a Waymo driverless taxi drove directly into the middle of an active LAPD standoff in downtown Los Angeles.
The driverless taxi made an unprotected left turn despite what appeared to be a red light, briefly entering a police perimeter. At the time, officers seemed to be giving commands to a prone suspect on the ground, who looked quite surprised at the sudden presence of the driverless vehicle.
People on the sidewalk, including the person who was filming the video, could be heard chuckling at the Waymo’s strange behavior.
The Waymo reportedly cleared the area within seconds. No injuries occurred, and the passengers inside the vehicle were safely transported to their destination, as per a Waymo representative. Still, the video spread across social media, with numerous netizens poking fun at the gaffe.
Others also pointed out that such a gaffe would have resulted in widespread controversy had the vehicle involved been a Tesla on FSD. Tesla is constantly under scrutiny, with TSLA shorts and similar groups actively trying to put down the company’s FSD program.
A Tesla on FSD or Robotaxi accidentally driving into an active police standoff would likely cause lawsuits, nonstop media coverage, and calls for a worldwide ban, at the least.
This was one of the reasons why even minor traffic infractions committed by the company’s Robotaxis during their initial rollout in Austin received nationwide media attention. This particular Waymo incident, however, will likely not receive as much coverage.













