News
SpaceX’s flight-proven Falcon 9 and drone ship fleet ready for duo of launches
SpaceX is gearing up for a duo of flight-proven Falcon 9 launches and drone ship landings on both coasts of the United States, set for liftoff from Cape Canaveral’s Kennedy Space Center and Vandenberg Air Force Base no earlier than (NET) November 15th and 19th, respectively.
#SpaceXArmada: Moments ago, outbound tugboat Hawk with droneship OCISLY in tow in @PortCanaveral. Destination: Booster core landing/recovery LZ of Thursday's #Eshail2 launch, approx 408 mi E of @NASAKennedy. pic.twitter.com/n5FvBdIvpt
— Cowboy Dan (@CowboyDanPaasch) November 12, 2018
East Coast activities
On the East Coast, drone ship Of Course I Still Love You departed from Port Canaveral late last night (Nov 11) as Falcon 9 B1047 rolled onto Pad 39A for a preflight static fire test, where the rocket will be filled with a full complement of fluids (TEA/TEB, helium, nitrogen, oxygen, kerosene) and all nine Merlin 1D engines are ignited in order to replicate the seconds just prior to a real launch. That static fire test was originally expected to occur on November 10 or 11 but has obviously been pushed back a day to Nov. 12, likely meaning that the rocket’s launch – carrying Qatari communications satellite Es’hail-2 – will slip 24 hours to 3:46pm EST (08:46 UTC) on the 16th,
Following the unfortunate loss of Amos-6 during a preflight static fire in September 2016, SpaceX has since made a reasonable move away from performing static fires with payloads integrated atop the rocket, unless the customer specifically requests that it be done that way to save time. As such, Falcon 9 must be brought horizontal, rolled back to the hangar, inspected, and finally have the payload and fairing attached to the rocket, a sensitive process that demands nuance and time. Combined with an analysis of data gathered during the static fire, this process – when all goes as planned – can take at least 48 hours from start to finish, and longer still if any minor off-nominal behavior is observed or the launch customer has additional requirements (typically reserved for NASA and national security-related missions).
- B1047 horizontal at Pad 39A, November 11. (Tom Cross)
- B1047 made an extraordinary ring vortex rainbow as it smashed through Max Q, the point of highest aerodynamic stress on the rocket. (Tom Cross)
- B1046 seen mid-static fire at Pad 39A ahead of Falcon 9 Block 5’s launch debut, May 2018. (Tom Cross)
Because rockets like Falcon 9 are extraordinarily intricate and finely-tuned machines, perfectly nominal launch-related events are few and far between. In reality, the time between static fire rollout and launch readiness is rarely less than three days (72 hours), not including the process of rolling the fully-integrated rocket back out to the pad, aligning and securing the vehicle and transporter-erector (TE) over the flame trench, and finally attaching all umbilical connections and verifying vehicle health. Speaking generally, four to five days is a good rule of thumb for the time it takes to complete Falcon 9’s static fire and return the rocket to the pad after attaching the payload.
Still, it’s always a good sign when a drone ship leaves port, much like OCISLY did on the evening of the 11th. The journey to its destination will take 2-3 days, meaning that the drone ship will be ready to catch Falcon 9 whenever the rocket is ready to launch.

Drone ships and sooty rockets, oh my!
On the West Coast, SpaceX is also getting ready for drone ship Just Read The Instructions (JRTI) to depart Port of San Pedro in anticipation of a presumed sea recovery of Falcon 9 following the NET Nov 19 launch of a multi-satellite rideshare mission known as SSO-A. While SpaceX currently holds two recovery licenses for the booster, one by sea and one at the land-based LZ-4 pad, it’s possible that the company will be forced to use JRTI despite the fact that Falcon 9 will have plenty of propellant left to return itself to the launch site (RTLS). United Launch Alliance’s (ULA) next Delta IV Heavy rocket is currently on-pad with a presumably very expensive National Reconnaissance (NRO) satellite attached roughly 1.5 miles northeast of SpaceX’s LZ-4 – the rest of the gaps are easy enough to fill in.
- Falcon 9 Block 5 booster B1046 seen during both of its post-launch landings. (SpaceX/SpaceX)
- B1047 completed its first successful launch in July 2018. (Tom Cross)
- B1047 seen rolling into 39A’s integration hangar for refurbishment on July 31st. (Reddit – Kent767)
JRTI was spotted by Teslarati photographer Pauline Acalin performing some rare sea trials on November 10 after spending several weeks berthed at port for routine maintenance and deck repairs. Fairing recovery vessel Mr. Steven has also been undergoing some unusual modifications, now proudly sporting what can only be described as a steel horn recently installed on the tip of his bow deck. After sitting out a catch attempt during the launch of SAOCOM 1A to prepare for controlled helicopter drop tests performed over a period of several weeks in October, Mr. Steven will most likely be ready for another stab at operational fairing recovery during SSO-A.
Both rockets – B1047 to the East and (presumed) B1046 to the West – are flight-proven, meaning that they have flown operational orbital missions prior to their upcoming launch attempts, B1047 launched communications satellite Telstar 19V in July 2018, while B1046 has actually performed two successful launches already, Bangabandhu-1 in May and Telkom 4 (Merah Putih) in August.
For prompt updates, on-the-ground perspectives, and unique glimpses of SpaceX’s rocket recovery fleet check out our brand new LaunchPad and LandingZone newsletters!
Elon Musk
Tesla Roadster’s new patent preps white-knuckle speeds, keeping it grounded
Ahead of its highly anticipated unveiling, Tesla’s upcoming Roadster received a new patent that aims to keep it grounded while enabling white-knuckle speeds.
The patent, which was granted on September 29, is titled “Electric Car Fan,” bluntly stating its design but not its purpose, which is further detailed in the text of the application. Interestingly, it comes two weeks before the Roadster event, which was delayed due to unfavorable weather on Thursday, which could cause issues, as Tesla revealed the event must be held outdoors.
🚨 The design uses electrically driven ducted fans, typically shown as a row of four at the rear, powered by the vehicle’s high-voltage battery.
The fans pull air from an underbody inlet, route it through ducts, and expel it from a larger rear outlet that functions as a… https://t.co/CHQB9u9UA3 pic.twitter.com/QVXmWTdggh
— TESLARATI (@Teslarati) September 29, 2026
The purpose is to solve a problem that is relatively unique to high-performance electric cars. Instant motor torque is useless if the tires cannot plant that force, and conventional wings and underbody tunnels generate downforce only when air is already rushing past the car. At launch, in slow corners, and under hard braking from modest speed, passive aerodynamic additions contribute essentially very little to downforce.
Tesla’s filing says that its fans can produce the downforce needed, independent of vehicle velocity, then ease off so the same hardware does not pile on drag at highway speeds, an issue that can come from excessive body modifications.
The hardware outlined in the patent is a ducted-fan package that is placed into the rear of the vehicle. An underbody inlet between the rear wheels feeds a duct that rises to a wide outlet in the diffuser. In that outlet are four axial fans, which are divided by vertical strakes. They will pull air from under the floor and press the chassis onto the pavement.
The language in the patent claims it can cut drag rather than add to it while simultaneously increasing downforce.
Tesla Roadster event requires restricted airspace, and the FAA obliges
The fans run from the high-voltage battery and a vehicle control system, so output can be modulated rather than left on as a fixed penalty.
There are additional strengths that can come from this design, like extra tire load at low speed, which can contribute to even more face-melting acceleration rates, decrease stopping distance, and sharper turn-in before a wing has air to work with. Adjustable fan speed lets the car add grip only when needed, so it can be catered to the force of a turn or acceleration.
These designs were previously used, and banned, in some competitive settings. The Brabham BT46B was banned in F1 competition for using a similar fan design and being labeled as too effective.
Tesla still lists the Roadster as having a sub-two-second 0-60 MPH time and a 250-plus-MPH top speed, and there are expectations for a SpaceX cold-gas thruster package that could not only increase acceleration but potentially cause the vehicle to hover.
It is important to note that a patent is not a production part, and packaging four fans in a rear diffuser, managing noise, and potential debris are all things Tesla must consider. With that being said, the patent being granted shows Tesla is designing the Roadster to go fast, but it is also attempting to use unique strategies to combat any issues it might have at those speeds.
Investor's Corner
Tesla showrooms picked clean ahead of Q3 end as demand looks strong
Tesla (NASDAQ: TSLA) showrooms have been picked clean ahead of the end of the third quarter of the year, as demand looks to be strong and delivery estimates for new vehicles are pushed into late 2026 and early 2027.
Tesla appears to have sold out of many of its Model 3 and Model Y trim levels in the United States, as only the Model Y RWD and Model Y All-Wheel-Drive are available for delivery before the end of the year.
Additionally, many showrooms are either completely empty or void of all but just one demo unit within the buildings themselves in an effort to bolster what could be one of Tesla’s best quarters in vehicle deliveries in recent memory.
I’m at Tesla right now and when I walked into their showroom I was shocked to see it basically empty.
I asked one of the people working there where all of the cars are “Gone – it’s the end of the quarter and we’ve sold out of everything… including the display vehicles”So… pic.twitter.com/rN7s3gE6sJ
— Devin Olsen (@DevinOlsenn) September 25, 2026
All the cars are gone from Tesla Century City!
All they have is Model Y L, a self-driving video playing on the background. I guess the best product is no product. Either that or they just sold the showroom cars. pic.twitter.com/mzCjWaXwww
— Whole Mars Catalog (@wholemars) September 26, 2026
Show room is empty. I asked and they have sold the demo cars too. Delivery numbers better be outstanding! pic.twitter.com/jq5N28Q6tZ
— Electric Brawl (@3lectricBrawl) September 22, 2026
Additionally, when I spoke to the guys at Tesla Mechanicsburg two weeks ago, when I returned the Model Y L, their third hauler of the week had just arrived, and every vehicle on it, along with every vehicle in their delivery lot, was accounted for and had a name attached to it for delivery.
Talking to the guys at the Mechanicsburg showroom on Friday, they couldn’t believe they had ANOTHER hauler coming in of cars for delivery—and each was accounted for
No car just sitting in inventory. They’re expecting a BIG quarter, and this is more than just the Y L https://t.co/ce801GkKVv
— TESLARATI (@Teslarati) September 21, 2026
Tesla saw a 25 percent increase in deliveries in Q2 compared to the same quarter the year before. The vast majority of the 480,126 units it delivered, 467,762 vehicles to be exact, were the Model 3 and Model Y.
In Q3 2025, Tesla delivered 497,099 vehicles, once again a figure that was dominated by the company’s two mass-market vehicles. Analysts have unusually wide predictions for this quarter, likely because so many firms missed the Q2 delivery figure by such a substantial margin; Wall Street predicted 408,000 cars, while Tesla delivered 480,000.
Goldman Sachs has Tesla slotted for 435,000 deliveries in Q3, while JPMorgan said it anticipates 482,000. The median guess is about 449,000 deliveries for Q3.
Interested in ordering a Tesla? Use my referral code for three free months of Full Self-Driving (Supervised) here.
Lifestyle
Watch Tesla’s “guardian angel” FSD feature take over for collision evasion
Tesla’s Automatic Collision Evasion feature can be seen in one of the first owner videos of it in action.
Tesla owner Spencer (@scotsrule08) posted on Monday that the feature “worked flawlessly,” saying FSD reengaged itself just as he was about to hit a curb. Ashok Elluswamy, who leads Tesla’s AI team, shared the clip and wrote, “A guardian angel always looking out for you.”
The video arrives in the middle of a staged rollout. Tesla first shipped Automatic Collision Evasion with FSD (Supervised) v14.3.9 in software update 2026.27.6 earlier this month, which Teslarati covered as it reached cars. Update 2026.27.10, which began going out on September 19, carried the feature improvements with FSD v14.3.10, according to release notes tracked by Not a Tesla App. The newer 2026.27.11 build is now reaching another wave of vehicles.
The new Automatic Collision Evasion feature worked flawlessly! FSD reengaged itself just as I was about to hit a curb.
Kudos @Tesla_AI team! 👏 pic.twitter.com/Fbp15HhpL2
— Spencer (@scotsrule08) September 28, 2026
The feature only runs on HW4 vehicles, and it requires an active FSD purchase or subscription with both FSD (Supervised) and Automatic Emergency Braking enabled. HW3 owners receive FSD v14.2 Lite in the same updates, but that build does not include collision evasion.
Tesla’s release notes describe two triggers. The first is an imminent frontal collision that braking alone may not prevent, in which case the car can activate FSD to steer, brake or accelerate around the hazard. That scenario is limited to highways below 85 mph, with no pedestrians or cyclists detected and no slippery road surface. The second covers a driver who appears inattentive, such as reaching into the back seat, or who seems to have switched off FSD by accident. Spencer’s curb clip appears to fall into that second category.
Tesla plans big safety improvements for Full Self-Driving v15
Once the system takes over, the accelerator is muted and light brake input will not cancel the maneuver. Drivers need to apply firm, deliberate steering force to take back control, and the car chimes to hand control back once the danger has passed.
Elluswamy recently noted that earlier hazard prediction, faster reaction time and better collision avoidance would arrive with FSD v15, the next major version.






