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Rocket Lab’s reusable Electron rocket upgrade gets ready for its biggest test yet

Rocket Lab's groundbreaking Electron rocket is being upgraded for reusability and its next launch is set to debut some new hardware. (Rocket Lab)

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Rocket Lab, the global leader in dedicated small satellite launches, has had quite the productive year, breaking ground on a new U.S.-based launch pad, successfully launching five orbital launches, and announcing plans to send small satellites and small payloads to lunar orbits.

The company also unexpectedly announced plans to attempt to recover and reuse Electron rocket boosters much like SpaceX’s Falcon 9, perhaps as soon as 2020. Just three months after that surprise, the company’s tenth Electron launch is on track to serve as a crucial step and flight test in pursuit of Rocket Lab’s very first booster recovery attempts.

Electron Flight 10 has slipped about a week but is now on track to lift off no earlier than 11:56 pm EST, November 28th (07:56 UTC, Nov 29).

Booster recovery – the new not new rocket version of reduce, reuse, recycle

Rocket Lab explained that recovery efforts would occur in two distinct phases. Phase 1 would involve recovering expended Electron boosters from the ocean off the coast of New Zealand and transporting back to the Rocket Lab’s headquarters for careful inspection. This process is reminiscent of previous practices completed by NASA during the shuttle era to retrieve the Shuttle’s Solid Rocket Boosters from the Atlantic Ocean. The boosters were retrieved and towed back to Port Canaveral, Florida to be inspected and refurbished at Kennedy Space Center.

The towing ship, Liberty, towed a recovered solid rocket booster (SRB) for the STS-3 mission to Port Canaveral, Florida. The recovered SRB would be inspected and refurbished for reuse.  The requirement for reusability dictated durable materials and construction to preclude corrosion of the hardware exposed to the harsh seawater environment.  (NASA)

Although rocket booster recovery is not new in the world of orbital rocketry, it is a new objective for Rocket Lab. In fact, founder Peter Beck stated he would have to “eat his hat” after previously and repeatedly stating that Rocket Lab would never pursue reusability for Electron. After Phase 1, Rocket Lab hopes to attempt its first true Electron ‘catches’. Unlike competitor SpaceX, whose Falcon 9 and Heavy boosters land propulsively on land or sea-based landing pads, Rocket Lab has opted to pursue Electron recovery with parachutes and grappling hook-equipped helicopters.

Following in SpaceX’s footsteps, Rocket Lab wants to become the second company in the world to reuse orbital-class rocket boosters. (USAF/Rocket Lab)

Electron’s upcoming tenth launch – nicknamed “Running Out of Fingers,” – will feature a new block upgrade for Electron’s first stage booster and will mark the first flight test of recovery hardware. Cold gas attitude control thrusters are the most obvious addition on the upgraded booster and will be used to orient Electron first stages in lieu of aerodynamic control surfaces like SpaceX’s iconic choice of grid fins. In a statement, however, Rocket Lab clarified that although the first stage includes new upgrades, it will only be used to gather data and inform future recovery efforts – no recovery attempts will be made after the next few launches.

Electron Flight 10 is a common rideshare mission that will place seven small satellites in orbit. Among the payloads is a rather fascinating spacecraft called the 2nd Satellite or ALE-2, built by the Tokoyo based ALE Company.

According to a statement posted to the company’s website, the spacecraft “will take on the challenge of materializing a [human]-made shooting star.” The spacecraft produced in conjunction with Spaceflight features four hundred spheres – each 1cm in diameter – that will be gradually ejected to burn up in Earth’s atmosphere, creating artificial shooting stars.

Behind the scenes at LC-1 and HQ

Rocket Lab provides an inside look at its Launch Complex-1 launch experience facility offering panoramic views of an Electron launch in person in Mahia, New Zealand. (Rocket Lab)

Ahead of the all-important tenth Electron launch, Rocket Lab treated its social media followers to some rare glimpses into the production process and the stunning Launch Complex-1 (LC-1) located on the Mahia Peninsula in New Zealand. A video posted to YouTube takes viewers on a digital tour around Launch Complex -1 as well as inside the Electron Production Complex.

In the Production Complex, a revolutionary robot named “Rosie” provides a level of automation that takes over the tedious work of processing a rocket body that has been traditionally completed by humans. Rosie the Robot is able to process an entire carbon composite shell of the Electron booster in just twelve hours. The automation machine also finishes out Rocket Lab’s Kick Stage and protective payload fairings. The piece of processing machinery will assist Rocket Lab in matching production and launch frequency of the Electron rocket with the 120 launches per year that LC-1 is licensed to support.

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Rocket Lab’s tenth Electron launch is currently on track for Friday, December 6th from 0756-0922 GMT (2:56-4:22 a.m. EST).

Space Reporter.

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Tesla Full Self-Driving v14.3.7 early review: FSD saved me from an accident

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Credit: Teslarati

Tesla released Full Self-Driving version 14.3.7 yesterday, and after about 90 miles of testing today, it is evident there are some definite fixes from version 14.3.6, which I wrote about last week and called a regression.

Within the first 40 minutes of my drive on v14.3.7, it saved me from getting into an accident with an unaware Dodge Charger driver, and some of the things Tesla seemed to miss in v14.3.6 were definitely improved. All in all, the release so far has some really great performance, and I’m looking forward to testing it further.

For now, here’s everything I noticed with v14.3.7:

Overall Improvement

Just generally speaking from a ride perspective, this was a really great experience. A lot of the hesitancy I experienced on v14.3.6 was gone. There were no instances of brake-stabbing, wheel-jerking, or any uncertain or unconfident movements. It was void of anything that I felt made it timid with v14.3.6.

The one thing I do hope to see down the road is a smaller need to adjust Speed Profiles so often. Because Tesla calls FSD “Supervised,” I’m okay with needing to hit the scroll wheel a few times a drive.

However, I hope that things can be incrementally improved upon with speed. Sometimes it’s too fast; other times it’s too slow. It’s a difficult thing to hone in and refine, but I hope it eventually gets there.

I didn’t notice any significant left lane camping or any behaviors that were completely out of line. I am hopeful that this opinion does not change, but after driving a few days with this version and putting it in a variety of different situations, you are exposed to more behaviors, some of which are not necessarily what I’d prefer.

The big things to notice, at least in my experience thus far, are that the major issues with previous versions — meaning the braking stabbing and wheel jerking — simply weren’t there. That’s enough to already consider this progress compared to .6.

Manual Signal Override is More Responsive

On .6, I had quite a few issues with FSD ignoring my manually input turn signals. If Tesla wants to call it “Supervised,” then the car should not ignore any input the driver gives. If I touch the accelerator on FSD, the car speeds up.

The car did a great job of obeying my turn signals when I wanted it to change lanes, which is welcome.

Parking Lot Performance

Before .6, I traditionally took over in nearly every parking lot my car entered, because I knew it would not park somewhere that I wanted, and usually, it was just a tad too timid in this setting.

The one bright spot of .6 was how well it handled parking lots. This continued with v14.3.7:

 

I’m always really happy to see progress at all, but once parking preferences come to FSD, as long as this performance is still around, that could potentially be the biggest improvement I’ve seen in FSD in the year I’ve been using it personally on a daily basis.

Full Self-Driving Averts Disaster

A Dodge Charger changed into my lane without checking if I was there, running me off the road. FSD made the initial avoidance maneuver; I grabbed the wheel out of instinct, looked in my side mirror to ensure I had nobody following closely behind, hit the brake, and straightened the car back up to avoid a curb:

There have been quite a few responses to this video stating that I should never have grabbed the wheel. To be honest, I really wish I had not done so, because I do believe FSD would have avoided any sort of collision with anything, including the car or the curb.

However, this was the first time I had ever been this close to being hit while using FSD. My natural reaction was to take over. I think if I had had something like this happen before, my reaction might have been different.

Hitting the brake avoided hitting the curb, while FSD swerved to avoid the car. My concern after the car was clear of my front end was the curb. All in all, I’m really happy with how things turned out, and I think anyone could be a critic of how I handled it. I only had a split second to really make a decision, and thankfully, any damage was avoided.

It is clear FSD managed to avoid the car coming down before I was able to. I truly credit FSD for avoiding the collision.

What Needs to Improve

Better Recognition of Potholes, Uneven Roads, Sharp Changes in Roadway/Bumps

On Friday, my Fianceè and I were in the car, and FSD was driving us. We crossed over a roadway that has a traffic light, and FSD was traveling at 40 MPH on Standard, 5 MPH over the speed limit. Everything was more than reasonable.

However, the road we were crossing at the light has a major bump both as you start and finish crossing it. Without a speed reduction, your car can go airborne. The Tesla did just this on Friday on v14.3.6; it was an uncomfortable bounce that pretty much confirmed I would not ever let FSD go over again unless we were sitting at that intersection when there is a red light.

I even tried scrolling down into Sloth quickly, but I ended up just taking over:

A few people have said it remains related to the vision-based approach and its difficulty comprehending 3D. This is a huge issue because this can cause serious damage at certain speeds.

Navigation

Nothing new here. I still turn off “Online Routing” quite frequently to get the car to take logical routes from time to time.

Auto Wipers

Auto Wipers are just plain bad. I really hope Tesla just uses a rain sensor. I thought they had improved at one point, but I still get dry wipes, Speed 4 on a drizzle, and Speed 2 on a steady rain. In reality, these should be switched.

You can watch our full review of Tesla Full Self-Driving v14.3.7 below:

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SpaceX’s biggest test yet arrives this week and it’s not a rocket launch

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SpaceX will report second quarter results after the market closes on Tuesday, August 4, marking the first time the company has opened its books to the public since its record IPO in June. Management will host a live audio only webcast at 4:30 p.m. ET, streamed on X, with no dial in option.

The debut carries more weight than a typical first quarter as a public company. Two trading days after the release, on August 6, the first tranche of SpaceX’s lockup expires, freeing roughly 911.5 million insider and employee shares, worth well over $100 billion at current prices and the largest such release in Wall Street history. A second, larger tranche tied to the stock trading 30 percent above its $135 IPO price never triggered, since shares have spent most of July trading below that price.

Wall Street’s models point to revenue near $6.9 billion for the quarter, up sharply from the $4.69 billion SpaceX reported in the first quarter, with a narrower per share loss than the $1.27 posted three months earlier, according to estimates compiled by Motley Fool. Those numbers will be the first look at how SpaceX’s three segments, Starlink, launch and AI, are performing independently.

SpaceX scores another massive Pentagon deal to support military satellites

Investors heading into the call have a specific list of questions. How many net new Starlink subscribers did SpaceX add after ending March with 10.3 million, and is average revenue per user holding up as the service expands into lower income markets. How much of the AI segment’s revenue reflects contract signings with Anthropic, Google and Reflection AI this year, deals that combined could annualize to nearly $28 billion if fully ramped. Whether capital expenditures, which nearly doubled in the AI segment alone between 2024 and 2025, are still accelerating or starting to plateau. And whether management offers any forward guidance at all, something SpaceX has never done publicly.

The report will also land days after Elon Musk publicly denied a Wall Street Journal report describing internal planning to separate Tesla’s China business ahead of a potential Tesla-SpaceX merger. Whether Musk or SpaceX executives address that speculation on the call, even indirectly, maybe something investors will be listening for on Tuesday.

As Teslarati reported after Musk’s own warning to short sellers last week, the CEO has made clear he expects skeptics to be proven wrong over time. Tuesday will be the first chance for the numbers themselves to make that case.

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SpaceX’s Starship just got filmed by its own cargo

SpaceX released new footage of Starship in space captured by the Starlink satellites it deployed.

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SpaceX released a new video Friday evening showing Starship from an angle showcased by its own Starlink satellites, watching the rocket drift away in orbit.

The 65 second clip, posted on X, stitches together footage from four cameras mounted on a single Starlink V3 satellite. It opens with a close view of Starship’s 171 foot upper stage, still catching sunlight, then pulls back as the two spacecraft separate.

The footage comes from Starship’s 13th flight test, which launched July 24 from Starbase after a scrubbed attempt and an abort caused by an engine issue the week before. When Flight 13 finally flew, it carried the first batch of functional Starlink V3 satellites Starship has ever deployed, twenty of them, with six equipped with cameras meant to scan the ship’s heat shield during reentry.

Flight 13 checked most of its boxes. Starship deployed all 20 satellites, relit a Raptor engine in space, and splashed down softly in the Indian Ocean off Western Australia. Musk’s longer term plan calls for a Starlink V3 constellation of 100,000 satellites, according to a recent FCC filing, with Starship as the only vehicle capable of launching them at the volume that requires. Each Starship flight is designed to carry up to 60 V3 satellites once the vehicle reaches routine service, well beyond what Falcon 9 can carry in a single mission.

Starship is next expected to fly with an attempt at catching the ship itself with the launch tower’s mechanical arms, a maneuver SpaceX has so far reserved for the Super Heavy booster.

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