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Rocket Lab secretly launches revolutionary satellite and readies for US launch debut
Rocket Lab’s recent flawless return to flight mission nicknamed “I Can’t Believe It’s Not Optical,” set the company up for loftier goals in the latter half of 2020 in a big way. Returning to operation after an in-flight anomaly and subsequent investigation is a massive accomplishment for any launcher. Returning to flight and debuting a pathfinder satellite developed and built in-house, however, solidified Rocket Lab as a full end-to-end space systems company.
For good measure, company founder and chief executive officer, Peter Beck, hopes to round out the year by activating two more Electron launchpads – one of which will be the launcher’s first US-based launch location dedicated to supporting missions for the United States government. Furthermore, following Electron’s seventeenth flight, Rocket Lab hopes to recover the expended first-stage booster – and perhaps more importantly, a mountain of data – as a stepping stone to launch vehicle reuse, a practice pioneered and solely dominated by SpaceX.
A return to flight and an introduction to space systems
Just eight weeks after Electron’s ill-fated thirteenth flight resulting in the loss of a second stage and all customer payloads due to an in-flight electrical anomaly, the next Electron was raised at Launch Complex 1 in Mahia, New Zealand. The fourteenth flight of Electron was a dedicated mission for San Francisco-based information services company, Capella Space. Initially announced, the mission deployed a single microsatellite called “Sequoia” to an approximate 500km circular orbit. Peter Beck later confirmed the mission also secretly featured the successful deployment of Rocket Lab’s first in-house designed and built satellite called “First Light.”

“First Light” is a pathfinder spacecraft based on Rocket Lab’s configurable Photon satellite platform. According to Rocket Lab, it exploits Electron’s Kick Stage, “a nimble but powerful extra stage on Electron designed to circularize payload orbits.” The Kick Stage is designed as a satellite bus with extended capabilities to transition into a satellite – Photon – and performing an independent standalone mission. This is exactly what occurred with “First Light.”
Following the deployment of the “Sequoia” microsatellite, Rocket Lab teams signaled the Kick Stage to enable the standalone Photon capabilities. The command transitioned the spacecraft from a delivery vehicle to a fully functional satellite for the very first time. “First Light” serves as the testbed of many upgraded components including improved management systems for power, thermal, and attitude control.
in a statement provided by Rocket Lab Beck said, “Launching the first Photon mission marks a major turning point for space users – it’s now easier to launch and operate a space mission than it has ever been. When our customers choose a launch-plus-spacecraft mission with Electron and Photon, they immediately eliminate the complexity, risk, and delays associated with having to build their own satellite hardware and procure a separate launch.”
Eventually, the extended Photon capabilities of the Kick Stage will be used to support lunar and interplanetary missions. Beck has gone on record many times stating that Rocket Lab is working toward funding a private mission to Venus with a more robust version of the Photon platform which will deploy a probe to collect information about the Venusian atmosphere.
Counting down to Electron’s first launch from Virginia
On September 17, just two weeks after introducing the world to “First Light,” Rocket Lab announced the final successful Electron wet dress rehearsal at its new Launch Complex 2 (LC-2) at the Mid-Atlantic Regional Spaceport in Wallops Island, Virginia.

The wet dress rehearsal is a standard preparatory practice of raising the rocket vertical on the launchpad, fueling the rocket, and conducting a practice run of all countdown systems and procedures ahead of a launch attempt. This gives launch teams the opportunity to ensure that the rocket is prepared for flight and work out any kinks that may arise ahead of sending the vehicle to space. The countdown is carried down to T-0 and then the vehicle is emptied and safed.
Recently, Rocket Lab was granted a five-year Launch Operator License by the Federal Aviation Administration for the LC-2 site enabling the space systems company to support up to ten Electron missions a year from U.S. soil. The new operator license combined with the one previously procured for Launch Complex 1 in New Zealand allows Rocket Lab to support up to 130 flights of the Electron rocket globally per year.
It was speculated that Electron’s next flight – and the first launch from LC-2 in Virginia – would be the dedicated STP-27RM mission coordinated by the U.S. Space Force’s Space and Missile Systems Center. The first from Virginia will launch a single microsatellite for the Air Force Research Laboratory’s Monolith program. However, the first mission from Virginia is still waiting on a debut date to be identified.
In order for Electron to fly from Virginia, NASA must first certify Electron’s Autonomous Flight Termination System (AFTS) – a protective measure that will automatically destroy the rocket in a safe manner should anything anomalous occur during first stage flight. Electron’s AFTS has already previously flown numerous times from New Zealand. The first flight from Virginia, however, will be the first time a vehicle will launch from the Mid-Atlantic Regional Spaceport with an AFTS.
15 launches, 3 launch pads, and a booster recovery

Until then, Rocket Lab is busy preparing for flight fifteen from New Zealand. The recently announced mission, nicknamed “In Focus,” is a rideshare mission featuring nine SuperDove satellites for Planet Labs and one payload for Spaceflight Inc. customer Canon Electronics Inc.
While preparing for the next flight, nearby Rocket Lab is simultaneously wrapping up construction on yet another launch pad. Launch Complex 1B is very much near completion and is expected to be brought online by year’s end. And that’s not the last goal Rocket Lab looks to achieve by the new year.

Beck has time and time again confirmed that the seventeenth flight of Electron will be the first attempt at recovering an expended first stage booster. Eventually, the company will attempt to catch the booster as it is falling back to Earth under the canopy of a parachute by utilizing a helicopter equipped with a specialized grappling hook. The first attempt at recovering a booster is not expected to be quite as elaborate.
Rocket Lab has strengthened the first-stage booster enough to survive the return trip. Until now, the booster has slammed into the ocean water and broken up into small bits. With the assistance of improved software and a deployable parachute, the booster of flight seventeen is expected to softly float back for a gentle water landing with the assistance of “recovery pontoons” as described in a Twitter post by Beck.
As of now, Rocket Lab has not identified any target dates for the upcoming milestones. The company has previously stated that the first mission from Virginia is expected to launch in the third quarter of 2020. Electron’s next flight – “In Focus” – from New Zealand is expected in the first half of October. Rocket Lab will provide future launch and development updates on their social media accounts.
Elon Musk
Tesla FSD mocks BMW human driver: Saves pedestrian from near miss
Tesla FSD anticipated a BMW driver’s lane drift before the human behind the wheel could react.
A video posted to r/TeslaFSD this week put a sharp spotlight on Tesla’s Full Self-Driving (FSD) software being able to react to pedestrian intent than an actual human driver behind the wheel. In the Reddit clip, a BMW driver can be seen rolling through a neighborhood street completely unaware of a pedestrian stepping in to cross. At the same time, a Tesla driving on FSD had already begun slowing down before the pedestrian even began their attempt to cross the street The BMW kept moving, prompting the pedestrian to hop back, while the Tesla came to a stop and provide right-of-way for the human to safely cross.
That gap between what the BMW driver saw and what FSD had already processed is the story. Tesla FSD wasn’t reacting to a person in the street, rather it was reading the signals that a person was about to enter it based on the pedestrian’s movement, trajectory, and their trajectory to telegraph intent.
Tesla’s FSD is now built on an end-to-end neural network trained on billions of real-world miles, learning to interpret subtle human behavioral cues the same way an experienced human driver does instinctively. The difference is consistency. A human driver distracted for two seconds misses what FSD does not.
Tesla sues California DMV over Autopilot and FSD advertising ruling
Reddit commenters in the thread were blunt about the BMW driver’s failure, with several pointing out that the pedestrian was visible well before the crossing. One response put it plainly that the car on FSD saw the situation developing before the human in the other car had registered there was a situation at all.
Tesla has published data showing FSD (Supervised) is 54% safer than a human driver, accumulated across billions of miles driven on the system. Elon Musk has said FSD v14 will outperform human drivers by a factor of two to three, and that v15 has “a shot” at a 10x improvement. Pedestrian safety is where the stakes are highest, and where intent prediction closes the gap fastest. At 30 mph, a car covers roughly 44 feet per second. An extra second of awareness from reading a person’s body language rather than waiting for them to step out is often the difference between a near miss and a fatality.
Video and community discussion: r/TeslaFSD on Reddit
FSD saves man from becoming a pancake. BMW driver nearly flattens him.
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u/Qwertygolol in
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Tesla Robotaxi gets a small but significant change
In the world of Tesla, where billion-dollar battery breakthroughs and autonomy milestones dominate headlines, a quiet design update can still pack a punch.
In the world of Tesla, where billion-dollar battery breakthroughs and autonomy milestones dominate headlines, a quiet design update can still pack a punch.
Last week in downtown Austin, sharp-eyed observers spotted a subtle but telling evolution on the Cybercab: a new “ROBOTAXI” logo graphic now graces the vehicle’s doors at Tesla’s Autonomy Popup.
What looks at first glance like a minor stylistic choice is, in fact, a deliberate rebranding move that hints at how the company envisions its robotaxi fleet fitting into everyday life.
The updated lettering is bold, graffiti-inspired, and unapologetically street-smart. Rendered in black with dripping white accents and a glowing yellow outline, the font evokes urban energy and playful irreverence.
Live From Downtown Austin:
Tesla Cybercab with new logo Graphic at their Autonomy Popup pic.twitter.com/MTTb9KDr3b
— David Moss (@DavidMoss) March 13, 2026
Gone is the sleek, minimalist typography that defined earlier Cybercab prototypes. In its place is something more human, almost rebellious.
The new logo pops against the Cybercab’s smooth, metallic body, turning the autonomous pod into a rolling piece of public art rather than just another futuristic taxi.
Designers know that fonts are silent brand ambassadors. They shape perception before a single ride is taken. Tesla’s classic sans-serif aesthetic screams precision engineering and Silicon Valley cool.
The new Robotaxi script leans into accessibility and fun, suggesting the vehicle is approachable, not intimidating. For a product meant to ferry strangers through city streets 24/7, that matters. It signals that the robotaxi isn’t reserved for tech elites; it’s for everyone.
Tesla Cybercab spotted next to Model Y shows size comparison
The timing is no accident. With regulatory approvals for unsupervised autonomy advancing and Tesla preparing to scale Cybercab production, the company is shifting from prototype showcase to fleet deployment.
A fresh logo helps differentiate the vehicles visually in dense urban environments—crucial for rider recognition and brand recall. It also aligns with Elon Musk’s long-standing ethos: make the future feel exciting, not sterile.
Small changes like this often foreshadow a larger strategy. Tesla has always obsessed over details—door handles, screen interfaces, even the curvature of a steering wheel.
Updating the Robotaxi font reflects the same meticulous care now applied to consumer-facing autonomy. It’s not just paint on metal; it’s a statement that the ride of the future should feel personal, memorable, and undeniably cool.
In an industry racing toward self-driving fleets, Tesla’s willingness to evolve even the smallest visual cues shows confidence. A font won’t launch the robotaxi network, but it might just help millions climb aboard with a smile.
News
Tesla makes latest announcement on Model S and Model X
The announcement follows Tesla CEO Elon Musk’s statement on the Q4 2025 earnings call in late January. Musk described the decision as an “honorable discharge” for the two vehicles, noting that production would wind down in Q2 2026.
Tesla has officially begun winding down production of its flagship Model S and Model X in the United States, notifying owners via email that the long-running models will soon reach the end of the line.
The email, sent to U.S. customers on March 27, opens with gratitude. “Model S and Model X marked the beginning of the world’s transition to electric transportation,” it reads. “These vehicles also made it possible for Tesla to develop the technology that would move our world toward autonomy.”
It then delivers the news directly: “As we make way for this autonomous future, Model S and Model X production will be ending. If you’d like to bring home a new Model S or Model X, order yours soon from our limited inventory.”
Tesla just sent out a new email thanking Model S/X owners.
“These vehicles made it possible for Tesla to develop the technology that would move our world toward autonomy. As we make way for this autonomous future, Model S and Model X production will be ending. If you’d like to… pic.twitter.com/IeUhZ3iDnX
— Sawyer Merritt (@SawyerMerritt) March 27, 2026
The message closes with a simple thank-you: “Thank you for being part of our journey.”
The announcement follows Tesla CEO Elon Musk’s statement on the Q4 2025 earnings call in late January. Musk described the decision as an “honorable discharge” for the two vehicles, noting that production would wind down in Q2 2026.
The move frees factory floor space at Fremont, California, for next-generation manufacturing, including Optimus humanoid robots and the upcoming Robotaxi platform.
Introduced in 2012 and 2015, respectively, the Model S and Model X were Tesla’s original halo cars. They proved EVs could outperform gasoline luxury vehicles in acceleration, range, and tech features while pioneering over-the-air updates and early autonomy hardware.
Although they never matched the volume of the Model 3 and Model Y, their engineering breakthroughs laid the foundation for the company’s current lineup and full self-driving development.
Early adopters highlighted how the cars convinced them to invest in Tesla stock and the EV movement. Some U.S. owners who had not yet received the note voiced mild frustration, and international customers confirmed the outreach remains U.S.-only for now.
Tesla has not detailed an exact final production date beyond the Q2 2026 target or confirmed immediate replacements. Speculation continues about a possible Cybertruck-derived SUV, but the company’s public focus has shifted squarely to autonomy and robotics.
For buyers still interested in the S or X, the window is closing. Inventory is described as limited, and Tesla’s Korean division has already set a March 31 cutoff for new orders in that market. The email serves as both a farewell and final sales push, an elegant close to a chapter that helped define modern electric driving.