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Rocket Lab “In Focus” mission ready to launch after scrubbed first attempt
On Wednesday, October 21, Rocket Lab held a launch countdown ahead of the fifteenth mission of its small rocket, Electron. The mission nicknamed “In Focus,” was slated to take off from the company’s primary launch pad at Launch Complex 1 on the Mahia Peninsula in New Zealand. Ultimately, the launch attempt was scrubbed due to an off-nominal oxygen sensor.
Rocket Lab did not immediately disclose a new targeted launch date, but did state that the launch window for the “In Focus” mission extended for nearly two-weeks. Rocket Lab founder and chief executive officer, Peter Beck, said in a Twitter post that, “the team’s taking the time to make sure it’s just the sensor and nothing else.” Beck also stated that weather moving into the area could pose a challenge for finding a new acceptable launch date.
Just two days later, Rocket Lab announced that a second launch attempt of the rideshare mission supporting ten Earth-observation satellites would occur at 5:14pm EDT (21:14 UTC) Wednesday, October 28. Should the second attempt be thwarted by uncooperative weather, daily opportunities to launch Electron are available until November 3.
What’s on board:
The fifteenth overall flight of Electron and fifth mission of 2020, is a rideshare mission that supports payloads for Canon Electronics Inc. and Earth-imaging services provider Planet. The payload, carefully mounted on the Rocket Lab Electron Kick Stage, consists of one nine SuperDove Flock 4e Planet microsatellites inside of Rocket Lab’s protective Maxwell payload dispensers. The entire stack is topped by Canon Electronics Inc.’s CE-SAT-IIB satellite procured by mission management provider Spaceflight Inc. All ten payloads are securely fixed atop the Electron Kick Stage.
The Electron Kick Stage – a capable extra stage on Electron – is designed to circularize orbits and deploy multiple payloads to independent and precise destinations. The Kick Stage is powered by a small, but powerful Curie engine. All ten of the satellite payloads aboard the “In Focus” mission are expected to be delivered to a 500km morning-crossing Sun Synchronous Orbit.
Prior to flight, the payload was encapsulated inside of the Electron’s protective payload fairing. In traditional fashion, Rocket Lab outfitted the fairing with the mission patch artwork created specifically for Electron’s fifteenth “In Focus” mission.
After encapsulation inside the fairing, the payload was integrated with the Electron first-stage booster. After a short trip from the assembly facility, Electron was raised vertically at Launch Complex 1 to complete a successful wet dress rehearsal – a standard pre-flight run-through of all launch procedures. The purpose of the wet dress rehearsal is to run through all of the launch day procedures including filling the rocket with RP-1 – a rocket grade kerosene – and liquid oxygen.
Launch teams conducted the practice launch on Thursday, October 8 proceeding through all countdown milestones right up until T-0 and engine ignition. This process ensures that the vehicle and launch teams are ready for flight. It also provides an opportunity to catch and address any anomalies that may arise prior to launch day.
What to expect on launch day:
Approximately four hours ahead of the launch attempt Rocket Lab will once again return Electron to vertical launching position at Launch Complex 1 in New Zealand. In the time prior to the fueling of the rocket, safety checks of the launch complex will be conducted and marine hazard zones and airspace will be closed and secured to all traffic. Fueling of the rocket will begin just two hours ahead of the launch attempt.
At T-0 Electron will be propelled to space by nine 3D-printed Rutherford electro-turbopump engines. Approximately 2 minutes and 34 seconds after liftoff Electron’s first stage will separate while the second stage engine ignites. Unique to the Electron, a “hot swap” of the batteries powering the electro-turbopump of the second stage will be performed – swapping out the power source of expelled batteries with new ones – at 6 minutes and 32 seconds after liftoff. The second stage is expected to arrive at an initial parking orbit approximately 8 minutes and 54 seconds after liftoff.
A brief ten seconds later the Kick Stage will separate from the second stage. Approximately 51 minutes and 06 seconds after liftoff the Kick Stage’s Curie engine will ignite to propel the payloads to their final circular Sun-Synchronous Orbits. Payload deployment is expected at the 60-minute mark after liftoff.
Rocket Lab will provide a live hosted webcast of the second launch attempt of the “In Focus” mission on Wednesday, October 28 on the company’s YouTube channel approximately fifteen minutes before liftoff. Should a scrub occur, Rocket Lab will announce a new targeted launch date on the company’s social media channels.
News
Tesla Cybercab display highlights interior wizardry in the small two-seater
Photos and videos of the production Cybercab were shared in posts on social media platform X.
The Tesla Cybercab is currently on display at the U.S. Department of Transportation in Washington, D.C., and observations of the production vehicle are highlighting some of its notable design details.
Photos and videos of the production Cybercab were shared in posts on social media platform X.
Observers of the Cybercab display unit noted that the two-seat Robotaxi provides unusually generous legroom for a vehicle of its size. Based on the vehicle’s video, the compact two-seater appears to offer more legroom than Tesla’s larger vehicles such as the Model Y, Model X, and Cybertruck.
The Cybercab’s layout allows Tesla to dedicate nearly the entire cabin to passengers. The vehicle is designed without a steering wheel or pedals, which helps maximize interior space.
Footage from the display also highlights the Cybercab’s large center screen, which is positioned prominently in front of the passenger bench. The display appears intended to provide entertainment and ride information while the vehicle operates autonomously.
Images of the vehicle also show an additional camera integrated into the Cybercab’s C-pillar. The extra camera appears to expand the vehicle’s field of view, which would be useful as Tesla works toward fully unsupervised Full Self-Driving.
Tesla engineers have previously explained that the Cybercab was designed to be highly efficient both in manufacturing and in operation. Cybercab Lead Engineer Eric E. stated in 2024 that the Robotaxi would be built with roughly half the number of parts used in a Model 3 sedan.
“Two seats unlocks a lot of opportunity aerodynamically. It also means we cut the part count of Cybercab down by a substantial margin. We’re gonna be delivering a car that has roughly half the parts of Model 3 today,” the Tesla engineer said.
The Tesla engineer also noted that the Cybercab’s cargo area can accommodate multiple golf bags, two carry-on suitcases, and two full-size checked bags. The trunk can also fit certain bicycles and a foldable wheelchair depending on size, which is quite impressive for a small car like the Cybercab.
Elon Musk
Elon Musk’s xAI wins permit for power plant supporting AI data centers
The development was reported by CNBC, citing confirmation from the Mississippi Department of Environmental Quality (MDEQ).
Mississippi regulators have approved a permit allowing Elon Musk’s artificial intelligence company xAI to construct a natural gas power plant in Southaven. The facility is expected to support the company’s expanding AI infrastructure tied to its Colossus data center operations near Memphis.
The development was reported by CNBC, citing confirmation from the Mississippi Department of Environmental Quality (MDEQ).
According to the report, regulators “voted to approve the permit” of xAI subsidiary MZX Tech LLC to construct a power plant featuring 41 natural gas-burning turbines “after careful consideration of all public comments and community concerns.”
The Mississippi Department of Environmental Quality stated that the permit followed a regulatory review process that included public comments and community input. Jaricus Whitlock, air division chief for the MDEQ, stated that the project met all applicable environmental standards.
“The proposed PSD permit in front of the board today not only meets all state and federal permitting regulations, but goes above and beyond what is required by law. MDEQ and the EPA agree that not a single person around our facilities will be exposed to unhealthy levels of air pollution,” Whitlock stated.
The planned facility will help provide electricity for xAI’s AI computing infrastructure in the Memphis region.
The Southaven project forms part of xAI’s efforts to scale computing capacity for its artificial intelligence systems.
The company currently operates two major data centers in Memphis, known as Colossus 1 and Colossus 2, which provide computing power for xAI’s Grok AI models. xAI is also planning to build another large data center in Southaven called Macrohardrr, which would be located in a warehouse previously used by GXO Logistics.
Large-scale AI training requires substantial computing power and electricity, prompting technology companies to develop dedicated energy infrastructure for their data centers.
SpaceX President Gwynne Shotwell previously stated that xAI plans to develop 1.2 gigawatts of power capacity for its Memphis-area AI supercomputer site as part of the federal government’s Ratepayer Protection Pledge. The commitment was announced during an event with United States President Donald Trump.
“As part of today’s commitment, we will take extensive additional steps to continue to reduce the costs of electricity for our neighbors. xAI will therefore commit to develop 1.2 GW of power as our supercomputer’s primary power source. That will be for every additional data center as well. We will expand what is already the largest global Megapack power installation in the world,” Shotwell said.
“The installation will provide enough backup power to power the city of Memphis, and more than sufficient energy to power the town of Southaven, Mississippi where the data center resides. We will build new substations and invest in electrical infrastructure to provide stability to the area’s grid.”
Elon Musk
Tesla China teases Optimus robot’s human-looking next-gen hands
The image was shared by Tesla AI’s account on Weibo and later reposted by Tesla community members on X.
A new teaser shared by Tesla’s China team appears to show a pair of unusually human-like hands for Optimus.
The image was shared by Tesla AI’s account on Weibo and later reposted by Tesla community members on X.
As could be seen in the teaser image, the new version of Optimus’ hands features proportions and finger structures that look strikingly similar to those of a human hand. Their appearance suggests that they might have dexterity approaching that of a human hand.
If the image reflects a new generation of Optimus’ hands, it could indicate Tesla is continuing to refine one of the most critical components of its humanoid robot.
Hands are widely viewed as one of the most difficult engineering challenges in robotics. For Optimus to perform complex real-world work, from manufacturing tasks to household activities, its hands would need to be the best in the industry.
Elon Musk has repeatedly described Optimus as Tesla’s most important long-term product. In posts on social media platform X, Musk has stated that Optimus could eventually become the first real-world Von Neumann machine.
In theory, a Von Neumann machine is a self-replicating system capable of building copies of itself using available materials. The concept was originally proposed by mathematician John von Neumann in the mid-20th century.
“Optimus will be the first Von Neumann machine, capable of building civilization by itself on any viable planet,” Musk wrote in a post on X.
If Optimus is expected to carry out complex work autonomously in the future, high levels of dexterity will likely be essential. This makes the development of advanced robotic hands a key step towards Musk’s long-term expectations for the product.
