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SpaceX, NASA targeting separate Moon launches days apart

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NASA and a SpaceX customer have announced plans to launch two unrelated Moon missions days apart next month.

On October 12th, NASA confirmed that it will roll its Space Launch System (SLS) rocket out to its Kennedy Space Center LC-39A pad for the fourth time as early as November 4th. Barring surprises, the rocket’s next launch attempt is scheduled no earlier than (NET) 12:07 am EDT (17:07 UTC), November 14th. SLS is tasked with launching an uncrewed prototype of NASA’s Orion crew capsule on its way to the Moon, where the spacecraft will attempt to enter lunar orbit and conduct tests before returning to Earth.

The same day, Japanese startup ispace confirmed that HAKUTO-R M1, its first commercial Moon lander, is scheduled to launch on a SpaceX Falcon 9 rocket sometime between November 9th and 15th. While NASA has a $73M contract with ispace to develop a second-generation SERIES-2 Moon lander in the United States, the first-generation HAKUTO-R program has been an almost entirely private endeavor. The first M1 lander will attempt to deliver two rovers – one built by Japan and the other by the United Arab Emirates – and several other commercial and government payloads to the surface of the Moon.

ispace’s first HAKUTO-R Moon lander. (ispace)
NASA’s first SLS Moon rocket. (Richard Angle)

As of 2020, HAKUTO-R is expected to weigh around 1050 kilograms (~2300 lb) at launch and has been designed to land up to 30 kilograms (~66 lb) of usable payload on the Moon. ispace has designed and built most of the lander’s structures but contracted with Europe’s ArianeGroup to provide the propulsion system and fully assemble, integrate, and test the lander in Germany.

According to ispace’s documentation [PDF], Falcon 9 will launch HAKUTO-R into a “supersynchronous” Earth orbit, where the lander will check out its systems before eventually using its own propulsion to thrust itself free of Earth’s gravity well and into the Moon’s. It expects a nominal transit from Earth orbit to the lunar surface to take at least 20 days. The lander is designed to survive up to 12 days on the Moon, during which it will attempt to operate its onboard experiments, deploy both of its tiny rovers, and transmit all the data gathered back to Earth.

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An artist’s impression of HAKUTO-R on the Moon. (ispace)

The startup initially [PDF] described its arrangements with SpaceX as contracts to launch two landers as secondary payloads on two Falcon 9 rockets. In its press releases, ispace no longer specifies whether the one-ton spacecraft will be the only payload on Falcon 9. It’s possible that HAKUTO-R M1 will be a secondary payload on SpaceX’s launch of the Eutelsat 10B geostationary communications satellite, which is currently scheduled NET November 11th. In a rare move, SpaceX will reportedly expend Falcon 9’s reusable first-stage booster during the mission, leaving much more performance on the table.

Update: Launch photographer Ben Cooper reports that Falcon 9’s reusable booster will fly back to the Florida coast to land on land after launching HAKUTO-R, strongly implying that the Moon lander will actually be the rocket’s only payload.

ispace has raised approximately $210 million since it was founded in 2010 – coincidentally the same year that the US Congress forced NASA to begin developing the SLS rocket. 12 years later, there’s a chance that the first launches of SLS and HAKUTO-R could occur hours apart.

https://twitter.com/Eutelsat_SA/status/1541820384344956930

When it rolls out next month, NASA’s SLS rocket will be heading to the launch pad for the fourth time. SLS and Orion have had a less-than-smooth journey to their first launch, suffering half a decade of delays and running tens of billions of dollars over budget as a result. Once all the pieces had arrived in Florida, it took NASA and its contractors about 12 months to finish assembling SLS and Orion and begin testing the integrated rocket.

Since integrated testing began in April 2022, SLS has undergone five publicized wet dress rehearsal (WDR) tests in April, June, and September. It also attempted to launch twice on August 29th and September 3rd, although both attempts were arguably a continuation of WDR testing in everything but name. But it appears that when the rocket rolls out for the fourth time, NASA will have finally completed nearly all of the testing it should have finished before loudly proclaiming that its “Mega Moon Rocket” was ready to launch back in August.

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The SLS launch debut will almost certainly take precedence over any other Cape Canaveral launch around the same time, including HAKUTO-R M1, but SpaceX could potentially launch the Moon lander roughly one day before or after NASA’s Moon rocket.

Eric Ralph is Teslarati's senior spaceflight reporter and has been covering the industry in some capacity for almost half a decade, largely spurred in 2016 by a trip to Mexico to watch Elon Musk reveal SpaceX's plans for Mars in person. Aside from spreading interest and excitement about spaceflight far and wide, his primary goal is to cover humanity's ongoing efforts to expand beyond Earth to the Moon, Mars, and elsewhere.

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Tesla is using a redesigned Cybertruck battery cell to mitigate Semi challenges

It is perhaps the most recent example of Tesla using unique engineering prowess and cross-pollinating vehicle elements to solve common problems, something it does better than most companies out there.

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Credit: Tesla

Tesla revealed that it is utilizing redesigned Cybertruck battery cells in its Long Range Semi to mitigate some pertinent challenges that come with long-haul logistics.

It is perhaps the most recent example of Tesla using unique engineering prowess and cross-pollinating vehicle elements to solve common problems, something it does better than most companies out there.

Tesla’s long-awaited Semi truck is entering production at its Nevada Gigafactory, and fresh factory footage reveals a clever evolution in its battery technology.

The Long Range variant, designed for up to 500 miles of real-world range, relies on a structural battery pack that uses the same 4680-form-factor cells found in the Cybertruck.

However, Tesla engineers have completely redesigned the pack’s architecture—shifting from the flat, pancake-style modules typical in passenger vehicles to a compact, vertical cubic layout. This change isn’t just about cramming more energy into the chassis; it’s a targeted solution to one of electric trucking’s biggest headaches: range loss in cold climates.

Dan Priestley, Head of the Tesla Semi program, said:

“We’re using essentially the same cell out of Cybertruck, but our cars packs are more like a pancake. Whereas these are more like a cube. You get a lot of energy stored in a small space. You can only do this if you design the vehicle to be electric from the ground up.”

In conventional EVs, battery packs are laid out horizontally in wide, flat arrays to fit under the floor. While this works for cars and even the Cybertruck’s structural pack, it exposes a large surface area to the elements.

Heat escapes quickly, especially overnight when the truck is parked. Cold temperatures slow chemical reactions inside lithium-ion cells, reducing available energy and forcing the vehicle to expend extra power warming the battery and cabin.

Real-world tests on vehicles like the Cybertruck show winter range losses of 20-40 percent, depending on conditions. For long-haul truck drivers operating in Canada, Scandinavia, or the northern U.S., this “silent killer” means unplanned stops, reduced payloads, and higher operating costs.

From personal experience, cold weather still impacts EV batteries even with various inventions and strategies that companies have come up with. In the cold Pennsylvania winter, charging was much more frequent for me due to range loss due to temperatures.

Tesla’s cubic battery pack flips the script. By arranging the 4680 cells in tall, dense vertical stacks, the pack minimizes external surface area relative to its volume—essentially turning the battery into its own thermal blanket.

Factory video from the Semi assembly line shows these large, yellow-green structural modules mounted directly onto the chassis, forming a near-cube shape.

The reduced exposure helps the pack retain heat generated during operation, keeping cells closer to their optimal temperature even after hours in sub-zero conditions.

The design doesn’t stop there. Tesla pairs the cubic pack with an advanced heat pump system that actively recycles thermal energy from the motors, brakes, and even ambient air.

Tesla reveals various improvements to the Semi in new piece with Jay Leno

Unlike passive systems in earlier EVs, this architecture transfers waste heat back into the battery, maintaining readiness for morning departures without draining the pack.

Executives have noted that the combination, cubic geometry plus intelligent thermal management, dramatically cuts overnight cooldown and range degradation, making the Semi viable for 24/7 fleet operations in harsh winters.

Beyond cold-weather performance, the redesigned pack integrates structurally with the truck’s frame, enhancing rigidity while simplifying assembly. Production footage shows workers installing the massive modules early in the line, signaling that the Semi’s battery is now a core chassis component rather than an add-on.

Using proven 4680 cells keeps costs down and leverages Tesla’s scaled manufacturing know-how from Cybertruck and Model Y lines.

Tesla’s focus on ramping up Semi output will lean on small innovative steps like this one. Truckers are not immune to traveling in cold weather conditions, and changes like this one will help make them more effective while also increasing output by logistics operators who choose to go all-electric with the Tesla Semi.

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SpaceX is keeping the Space Station alive again this weekend

SpaceX’s Falcon 9 launches Northrop Grumman’s Cygnus NG-24 to the ISS with 11,000 pounds of cargo Saturday.

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SpaceX is targeting April 11 for the launch of Northrop Grumman’s Cygnus XL cargo spacecraft to the International Space Station, carrying over 11,000 pounds of supplies, science hardware, and equipment for the Expedition 73 crew aboard. Liftoff is set for 7:41 a.m. ET from Space Launch Complex 40 at Cape Canaveral Space Force Station, with a backup window available April 12 at 7:18 a.m. ET.

The mission, officially designated NG-24 under NASA’s Commercial Resupply Services program, names its spacecraft the S.S. Steven R. Nagel in honor of the NASA astronaut who flew four Space Shuttle missions and logged over 723 hours in space before his death in 2014. Unlike SpaceX’s own Dragon capsule, which docks autonomously, Cygnus relies on NASA astronauts to capture it using a robotic arm before it is berthed to the space station’s module for unloading. When the mission wraps up around October, the Cygnus will depart loaded with station trash and burn up on reentry.

Countdown: America is going back to the Moon and SpaceX holds the key to what comes after

This is the second flight of the Cygnus XL configuration, which debuted on NG-23 in September 2025 and offers a roughly 20% increase in cargo capacity over the previous design. Northrop Grumman switched to Falcon 9 launches after its own Antares 230+ rocket was retired in 2023 following supply chain disruptions from the war in Ukraine.

The upcoming cargo includes a new module to advance quantum research, and an investigation studying blood stem cell production in microgravity with potential therapeutic applications on Earth.

The NG-24 mission is one piece of a much larger picture for SpaceX and the U.S. government. As Teslarati reported, SpaceX has become an indispensable launch provider for U.S. national security missions, picking up a $178.5 million Space Force contract in April 2026 to launch missile tracking satellites, while also holding roughly $4 billion in NASA contracts tied to the Artemis lunar program.

At a time when no other American rocket can match the Falcon 9’s combination of reliability, cost, and launch cadence, Saturday’s mission is a straightforward reminder of how much the U.S. government now depends on a single commercial provider to keep its astronauts supplied and its satellites flying.

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Tesla hits FSD hackers with surprise move

In recent weeks, the company has begun remotely disabling FSD capabilities on affected vehicles, and in some instances, permanently revoking access even for owners who paid thousands of dollars for the feature.

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Tesla is cracking down on hackers who have figured out a way to utilize third-party programs to activate Full Self-Driving (FSD) in their vehicles — despite the suite not being approved for use in their country.

Tesla has launched a sweeping enforcement campaign against owners using third-party hardware hacks to activate FSD software in countries where the advanced driver-assistance system remains unregulated or unapproved.

In recent weeks, the company has begun remotely disabling FSD capabilities on affected vehicles, and in some instances, permanently revoking access even for owners who paid thousands of dollars for the feature.

Reports of the crackdown have surfaced across Europe, China, Japan, South Korea, and the UK, marking a significant escalation in Tesla’s efforts to enforce regional software restrictions.

FSD is Tesla’s flagship supervised autonomy package, which is available in several countries across the world. Currently limited by regulatory hurdles, it has not received full approval in most markets outside of the United States due to various things, such as safety standards, data privacy, and local traffic laws.

However, the company is working to expand its availability globally. Nevertheless, Tesla has installed the necessary hardware on vehicles globally, but locks the features based on geographic location.

Some owners have taken accessing FSD into their own hands, using jailbreak or bypass devices.

These “jailbreak” tools, typically €500 USB-style modules that plug into the vehicle’s Controller Area Network (CAN) bus, intercept signals to spoof approvals and unlock FSD, including advanced navigation, Autopark, and Summon features.

Hackers in Poland, Ukraine, and elsewhere have distributed the devices, with some claiming they work on HW3 and HW4 vehicles and can be unplugged to restore stock settings. In China alone, over 100,000 owners reportedly installed such modifications.

Tesla’s response has been swift and uncompromising. Recently, the company began sending in-car notifications and emails warning owners that unauthorized modifications violate terms of service, compromise vehicle safety systems, and expose cars to cybersecurity risks.

The email communication read:

“Your vehicle has detected an unauthorized third-party device. As a precaution, some driver assistance functions have been disabled for safety reasons. A software update will be available soon. Once you install the update, some features may be enabled again.”

Vehicles detected using the hacks have had FSD capabilities remotely disabled without refund. In some cases, owners report permanent bans, even if they had legitimately purchased the software package.

Tesla’s hardline stance underscores its commitment to regulatory compliance and safety.

Tesla has long argued that unsupervised FSD requires rigorous validation, and premature activation could endanger drivers and bystanders.

The crackdown sends a clear-cut message to those who are bypassing the FSD safeguards, but there are greater implications for Tesla if something were to go wrong. This is an understandable way to protect the company’s reputation for its FSD suite.

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