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NASA SLS rocket launches Orion spacecraft to the Moon
After years, months, days, hours, and minutes of waiting, NASA’s first Space Launch System (SLS) rocket has successfully lifted off from Kennedy Space Center and sent an Orion spacecraft on its way to the Moon.
Originally projected to launch by late 2016, SLS lifted off for the first time at 1:48 am EST (06:48 UTC) on November 16th, 2022. Once known as Exploration Mission 1 (EM-1), NASA’s SLS debut was renamed “Artemis I” when the Trump administration created the Artemis Program in 2017. By most measures a semi-modernized Apollo Program without a geopolitical race against the Soviet Union, the Artemis Program survived the election of a new president in 2020, and the SLS rocket’s debut has officially become the program’s first major mission to get off the ground.
That SLS rocket has had a very long journey to its first successful launch. Supplied by United Launch Alliance (ULA), the rocket’s small Interim Cryogenic Propulsion Stage (ICPS) – the stage responsible for orbital burns – was delivered to the Kennedy Space Center in November 2017. Boeing shipped the first Core Stage – SLS’ central liquid rocket booster – to Mississippi for proof testing in January 2020, and CS-1 completed that testing in March 2021 and was delivered to Florida by April 2021.
After almost 12 months of painstaking assembly, the first fully-assembled SLS rocket rolled out to Kennedy Space Center Launch Complex 39B (Pad 39B) and attempted its first on-pad wet dress rehearsal (WDR) test. Seven months, three partially-completed WDRs, and two aborted launch attempts later, everything finally came together on November 16th, 2022.
By all appearances, the first SLS launch went perfectly. Shortly before liftoff, SLS ignited four former Space Shuttle Main Engines, making sure they were performing as expected. Seconds later, the launch computer fully committed and ignited both of SLS’ Shuttle-derived solid rocket boosters (SRBs) – motors than cannot be shut down after they’re lit. Much like the Shuttle did, SLS leapt off the pad after SRB ignition.
Combined, NASA says its RS-25 liquid engines and SRBs produced up to 4000 tons (8.8M lbf/39,200 kN) of thrust at liftoff, making SLS the second most powerful rocket to ever leave the launch pad. Only the Soviet Union’s N1 rocket, which produced up to 4500 tons (9.9M lbf/44,100 kN) of thrust at liftoff, was more powerful. But unlike N1, which failed four times over four launch attempts, the first SLS rocket reached orbit as planned, making it the most powerful rocket ever successfully launched.
About two minutes after liftoff, both SRBs successfully separated from the Core Stage. Eight and a half minutes after liftoff, the Core Stage shut down its four RS-25 engines and deployed the ICPS and Orion spacecraft just below the height of a stable orbit. 51 minutes after liftoff, ICPS ignited its lone RL-10 engine for 22 seconds to insert itself and Orion into a stable Earth orbit. Finally, about an hour and forty minutes after liftoff, ICPS ignited for a lengthy 18-minute trans-lunar injection (TLI) burn, sending Orion on a trajectory that will intercept the Moon on November 21st.
If all goes according to plan, Orion will then use its own European Service Module (ESM) to correct its trajectory and enter a Distant Retrograde Orbit around the Moon on November 25th, where it will remain tens of thousands of kilometers above the lunar surface. Orion will then leave lunar orbit as early as December 1st and reenter Earth’s atmosphere on December 11th before the capsule finally splashes down in the ocean.
Assuming Artemis I goes perfectly, Artemis II – SLS and Orion’s first launch with astronauts aboard – is scheduled no earlier than (NET) 2024. Artemis III, which will team up with a modified version of SpaceX’s Starship launch vehicle to attempt to land astronauts on the Moon for the first time since 1972, is expected to follow NET 2025. However, a reliable source with a prophetic track record estimates that Starship and SLS might not be ready to launch Artemis III until 2028.
SpaceX is gearing up for the 13th Starship integrated flight test, which is currently scheduled for Thursday, July 16, with the launch window opening up at 6:30 PM E.T. from Starbase in South Texas.
This mission, the second with the V3 Starship and Super Heavy vehicles, builds directly on the foundation of Flight 12 while introducing ambitious new objectives, including the debut deployment of next-generation Starlink V3 satellites.
The rapid iteration between flights underscores SpaceX’s “fail fast, learn faster” philosophy, with engineers addressing specific anomalies from the previous test to push reusability and payload capabilities further.
Starship’s thirteenth flight test is preparing to launch as early as Thursday, July 16 → https://t.co/Rp7VwBzpWx pic.twitter.com/jdpFlQUEpF
— SpaceX (@SpaceX) July 11, 2026
Flight 12 occurred earlier in 2026 and encountered notable challenges that became catalysts for Flight 13’s improvements. Issues included booster course deviations during the flip maneuver after stage separation, reusability problems with Super Heavy’s Raptor engine relights for the boostback burn, and an engine-out event on the Starship upper stage during its propulsion phase.
These hiccups, while they did not prevent overall mission success, highlighted areas needing refinement for more consistent performance and higher safety margins in future operational flights.
Elon Musk called it Epic: The full story of SpaceX’s Starship Flight 12
In response, SpaceX implemented a comprehensive suite of both hardware and software upgrades.
For the booster, engineers developed a more robust stage separation flip sequence to maintain stable orientation and prevent off-course rotation. Hardware modifications have enhanced Raptor re-light reliability during the boostback burn, complemented by updated engine alarms and abort logic tailored for multi-engine operations. On the Starship side, propulsion system changes directly tackle the Flight 12 engine-out scenario, improving redundancy and operational resilience.
Another major focus of SpaceX for Flight 13 was the advancements in the heat shield. New tile designs and attachment mechanisms, including tests of aft flaps and skirts, aim to boost durability.
Load-sensing tiles will measure real-time stresses during atmospheric entry, while white-painted tiles simulate missing ones as imaging targets. Six of the 20 Starlink V3 satellites carried aboard will feature specialized cameras to scan and transmit heat shield imagery back to ground teams, providing critical data for future return-to-launch-site attempts.
The mission profile also includes a higher dynamic pressure ascent to stress-test the thermal protection system and increase payload potential, alongside a planned in-space Raptor engine relight demonstration.
The V3 Starlink satellites themselves mark a leap forward, equipped with laser links, deployable solar arrays, and improved antennas to expand network capacity and speeds.
The company wrote:
“For the first time, Starship will carry V3 Starlink satellites to space, which aim to greatly expand the network’s capacity and user speeds. As part of this initial test, Starship is planned to deploy 20 satellites which will extend solar arrays and antennas and will attempt to connect with ground stations in South Africa and the larger Starlink constellation via high-capacity lasers. Six of the satellites have been modified with a suite of cameras to scan Starship’s heat shield and transmit imagery down to operators to continue testing methods of analyzing Starship’s heat shield readiness for return to launch site on future missions. Several tiles on Starship have been painted white to simulate missing tiles and serve as imaging targets in the test.”
This dual-purpose flight tests both vehicle reliability and satellite tech in one integrated operation.
These iterative changes, catalyzed by Flight 12’s data, position Starship closer to rapid reusability goals essential for ambitious programs like Artemis lunar missions and global Starlink coverage.
As SpaceX continues its aggressive test cadence, Flight 13 exemplifies how targeted engineering responses to real-flight anomalies accelerate progress toward fully operational, high-cadence launches. Success here could mark another milestone in the Starship program for SpaceX.
Tesla received a price target upgrade just on the heels of what was a crazy successful quarter for its automotive business, as the company reported a delivery beat of over 15 percent for Q2.
Jefferies analysts are upping Tesla’s price target (NASDAQ: TSLA) to $400 from $375, while maintaining their “Hold” rating on shares, and the strong automotive deliveries from Q2 is a big reason. However, there are some other catalysts that Jefferies believes position Tesla for a strong position in the second half of the year.
Strong Deliveries
Tesla reported 480,000 deliveries for Q2, while Wall Street was between 395,000 and 405,000, as an overall consensus. It was an incredibly strong quarter from a delivery perspective, and Tesla sold well more than it produced during the three months.
Tesla crushes Wall Street expectations, beats delivery estimates by over 15 percent
While vehicle deliveries are not necessarily looked at in the light that they used to be, Tesla still maintains a lot of advantages for keeping deliveries strong. With the loss of the $7,500 EV Tax Credit last year, Tesla still maintains a strong demand case for its EVs.
Robotaxi Performance
Tesla has been operating Robotaxi for over a year now, as it launched in Austin in mid-2025. That program has expanded to Houston and Dallas, the San Francisco Bay Area, and, most recently, Miami, Florida, the suite’s first appearance in the Sunshine State.
While the Robotaxi suite is still in its early phases and Tesla is working through things like fleet size and wait times, the company has been able to undercut the pricing of its competitors and has a great safety record.
Merger Speculation with Tesla and SpaceX
This is perhaps the biggest topic that many are speaking about with Tesla and SpaceX, and it is the one thing that seems to be on the mind of every investor.
Jefferies warns that growing talk of a Tesla-SpaceX merger could cause Tesla stock to trade more like a SpaceX proxy, which may disconnect it from underlying automotive fundamentals. SpaceX has a lot going for it, especially its compute deals that have been widely publicized as of late.
Profitability in New Projects Could Take Some Time
Tesla has a few long-term ventures in the pipeline, most notably the Optimus project and Robotaxi, which is launched but will take several years to expand to a meaningful level that resonates with everyday people.
This is something that investors need to be careful of. Tesla’s projects could take some time to round out, so Jefferies advises that these may carry initial losses, rather than immediate profit. Seasoned Tesla investors have echoed something like this for a long time; they knew going in it would not be an open-and-shut strategy. It was going to take time.
These new projects are no different.
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Tesla readies its autonomous Cybercab and Robotaxi cleaning service
A Texas permit just confirmed Tesla’s cleaning robot is coming to service its Cybercab and Robotaxi fleet.
A routine Texas building permit may have quietly confirmed that Tesla’s robot vacuum and autonomous cleaning bot for the Robotaxi and Cybercab is coming. A state filing with the Texas Department of Licensing and Regulation, as first discovered by Tesla enthusiast Spencer and posted to X, that project number TABS2025022006, lists the scope of work at Tesla’s Austin Robotaxi hub at 5900 E Ben White Blvd to include a “Cleaning Robot” alongside Supercharger cabinets and an Equipment Inspection System.
Tesla first showed the cleaning robot publicly on January 31, 2025, posting a short video on X with the caption “This robot sucks,” showing a large robotic arm inside a Cybercab cabin switching between attachments to vacuum debris, pick up trash, and wipe down surfaces.
The operational case for this hardware comes down to mathematics. A robotaxi running rides across Austin needs to cycle passengers continuously to generate revenue. Every minute a vehicle sits waiting for a human cleaning crew is a minute it is not earning. A robotic arm that can fully clean a Cybercab cabin between rides in under two minutes removes one of the key bottlenecks in fleet utilization that no autonomous vehicle company has yet solved at scale.
This robot sucks pic.twitter.com/VUmGfCM5B3
— Tesla (@Tesla) January 31, 2025
The 5900 E Ben White Blvd address sits roughly 12 miles southwest of Gigafactory Texas, where Tesla has been mass producing its Cybercab. The Ben White facility is expected to functions as Tesla’s Austin Robotaxi Hub, the physical base of operations where fleet vehicles return between rides to charge, get cleaned, and undergo inspection before being dispatched again – and all autonomously. One can imagine a Cybercab dropping off a passenger, routes itself back to Ben White, pulls into the cleaning station, charges on one of the Supercharger cabinets listed in the same permit, passes the equipment inspection system, and returns to service, all without a human making a single decision.
The sighting activity around both locations has accelerated in parallel with production. By mid-March 2026, Cybercabs were spotted regularly on public roads across Austin and Silicon Valley. Tesla’s Robotaxi operations in Texas has expanded to cover the entire Austin metro area and has spread to Dallas, while autonomous Cybercab employee shuttle runs at Gigafactory Texas are also set to begin soon. What it represents is the physical infrastructure behind a fleet that Tesla intends to run without anyone cleaning, driving, or dispatching it by hand.
SpaceX comes with a slew of changes for Starship Flight 13
Tesla gets price target upgrade on heels of crazy successful auto quarter
