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Tesla Model 3 named as vehicle with ‘lowest probability of injury’ by the NHTSA
The National Highway Traffic Safety Administration (NHTSA) has dubbed the Long Range RWD Tesla Model 3 as the vehicle with the lowest probability of injury among all cars that the agency has tested so far. The Model 3’s low likelihood of injury rating was given after the vehicle went through the NHTSA’s New Car Assessment Program, which involves a series of crash tests determining the likelihood of serious passenger injury for front, side, and rollover crashes.
The Model 3’s stellar rating from the NHTSA could be seen as yet another testament to the quality of Tesla’s all-electric cars. Immediately following the Model 3’s scores, after all, are the Model S and Model X, which are currently the vehicles considered by the NHTSA with the second and third lowest probabilities of injury. In a blog post announcing the electric sedan’s safety ratings, Tesla noted that it expects the Dual Motor AWD Model 3 to perform just as well in the NHTSA’s tests as its Long Range RWD sibling.
Part of the reason why the Model 3 is so safe is due to the vehicle’s all-electric design. Tesla opted to place the Model 3’s battery pack, the heaviest component of the vehicle, right at the car’s center of gravity. This gives the Model 3 performance and handling that is almost similar to that of mid-engine vehicles, while allowing the electric sedan to have a near 50/50 weight distribution. Other subtle design tweaks, such as the rear motor being placed slightly in front of the axle, further improve the Model 3’s weight distribution, as well as its overall agility and handling.
Model 3 provides superior safety with its front crumple zone which is optimized to absorb energy and crush upon impact https://t.co/RJEn0LlVNi pic.twitter.com/foF7CXPCc0
— Tesla (@Tesla) October 8, 2018
In true Tesla tradition, the Model 3’s all-electric architecture comprises of a sturdy, rigid passenger compartment, a fortified battery pack, and a low center of gravity. Just like its larger siblings, the Model S and X, the absence of an internal combustion engine in front and a fuel tank at the rear give the Model 3 extra large crumple zones, which are optimized to absorb energy and crush more efficiently in the event of an accident.
In the event of a frontal crash, the crumple zone at the front of the vehicle controls the deceleration of occupants, while the Model 3’s advanced restraint systems keep occupants safe in place. Passenger airbags are even specially designed to protect an occupant’s head in the event of an angled or offset crash, while active vents enable the vehicle to adjust the internal pressure of the frontal airbags when deploying. These systems optimize protection based on the specifics of an accident.
The Model 3’s energy-absorbing lateral and diagonal beam structures help occupants safe during pole impact crashes. These structures include a high-strength aluminum bumper beam, a sway bar placed close and forward in front of the car, cross members are the front of the steel subframe that are connected to the main crash fails, as well as diagonal beams in the subframe that distribute energy back to the crash rails when they are not directly impacted. An ultra-high-strength martensitic steel beam is further fitted on the front of the suspension to absorb crash energy from severe impacts.
Tesla also designed the Model 3 with a patented pillar structure and side sills to absorb as much energy as possible in a short distance. Coupled with the vehicle’s rigid body construction and fortified battery architecture, these design elements enable the Model 3 to reduce and prevent compartment intrusion in the event of an accident, while allowing its side airbags to have more space to inflate and cushion occupants.
Just like the Model S and Model X, the Model 3’s low center of gravity plays a key role in keeping the vehicle safe from rollover crashes. That said, even if a rollover does occur, Tesla notes that internal tests have shown that the Model 3 is capable of withstanding roof-crush loads equivalent to more than four times the electric sedan’s weight, far more than the NHTSA’s standards that require cars to withstand three times their own weight.
.@NHTSAgov will post final safety probability stats soon. Model 3 has a shot at being safest car ever tested.
— Elon Musk (@elonmusk) September 20, 2018
The Model 3 was recently given a flawless 5-Star Safety Rating in all categories and subcategories by the NHTSA. In a follow-up tweet to the NHTSA’s Model 3 results, Elon Musk noted on Twitter that the electric sedan has a shot at being the “safest car ever tested” by the agency. With the Model 3 being dubbed as the vehicle with the lowest probability of injury by the NHTSA, it appears that Musk’s statement has proven to be accurate.
Model 3 has the lowest intrusion from side pole impact of any vehicle tested by @NHTSAgov https://t.co/RJEn0LlVNi pic.twitter.com/ZvGCC82rEX
— Tesla (@Tesla) October 8, 2018
It’s not just the NHTSA that has given the Model 3 its approval, either. Earlier this year, the Insurance Institute for Highway Safety (IIHS), a nonprofit funded by auto insurers aimed at reducing accidents on the road, gave the Model 3 a “Superior” front crash avoidance rating. During the course of its testing, the Model 3 performed well in the crash avoidance and mitigation category, thanks to the vehicle’s Forward Collision Warning, its low-speed autobrake, and its high-speed autobrake systems. The Model 3 was also given a “Recommended” rating by Consumer Reports, after an over-the-air software update reduced the vehicle’s braking distance.
Tesla’s electric cars are known for their performance and their safety. The Model X, for one, also received 5-Star Safety Ratings in all categories and subcategories during the NHTSA’s tests. The Model S, on the other hand, performed so well during the NHTSA’s safety evaluation that the agency’s crash-testing gear broke while it was testing the electric sedan.
Tesla welcomed JPMorgan analysts to one of its factories earlier this month, with the Wall Street firm highlighting its findings in a new note to investors. One of the more pertinent pieces of information is that Tesla admitted to slowly integrating Model Y vehicles into its Robotaxi fleet, but it has a good reason.
JPMorgan analysts recently toured Tesla’s Fremont Factory and met with the company’s investor relations team, emerging with a clearer picture of the automaker’s Robotaxi strategy. According to the bank’s note, Tesla is intentionally limiting the addition of Model Y vehicles to its existing Robotaxi fleet.
The firm’s analysts said:
“Tesla indicated it is intentionally holding back on adding Model Y units to the robotaxi fleet, expressing confidence in its ability to scale Cybercab in the near-term. On FSD V15, Tesla views this release as a step-change in performance, comparable to the leap from V13 to V14. The V15 upgrade encompasses seven core technologies, with ~40% of those currently being tested in the robotaxi fleet, where initial feedback has been encouraging.”
JPMorgan after meeting with Tesla recently in Fremont:
“Tesla indicated it is intentionally holding back on adding Model Y units to the robotaxi fleet, expressing confidence in its ability to scale Cybercab in the near-term. On FSD V15, Tesla views this release as a step-change… pic.twitter.com/W9yGCWRT3C
— Sawyer Merritt (@SawyerMerritt) August 20, 2026
Far from signaling delays or doubts about autonomy, the move reflects strong management confidence in the near-term scalability of the purpose-built Cybercab.
Tesla has operated its Robotaxi service primarily with modified Model Ys since launching in Austin and expanding to other markets. Yet the company is now deliberately holding back further Model Y conversions. The rationale is straightforward: leadership believes the Cybercab, a two-seat, steering-wheel- and pedal-free vehicle optimized for high utilization, can ramp production and deployment more efficiently in the coming months.
This dedicated form factor promises better unit economics for the majority of rides, which typically involve one or two passengers, while freeing consumer Model Y inventory for retail sales.
Supporting this pivot is Full Self-Driving (FSD) software version 15, which Tesla describes as a genuine step-change in performance, comparable to the leap from V13 to V14. The update incorporates seven core technologies; roughly 40 percent are already undergoing real-world testing in the current Robotaxi fleet, with early feedback described as encouraging.
Tesla is carefully managing software development to minimize regressions in core driving functions as new capabilities are added. Management positions V15 as the primary gateway to scaling unsupervised FSD. Importantly, the existing AI and Hardware 4 stack is already capable of running V15 and supporting unsupervised operation.
Cybercab itself is only the first vehicle on the platform. Tesla reiterated that additional form factors will follow, pointing to concepts such as the earlier “Robovan” demonstration as examples of how the architecture can evolve.
Tesla’s mysterious Robovan makes a sneak peek with Optimus in Terafab video
Parallel progress continues on the Optimus humanoid robot, which remains on track for start of production in the coming months, with commercial sales possible as early as the second half of 2027. Generation 3 details will be revealed closer to production to preserve competitive advantages, while Generation 4 scope will draw on real-world Gen 3 experience.
JPMorgan left the meeting with a deeper appreciation for Tesla’s manufacturing automation and maintained its $475 price target. The decision to slow Model Y Robotaxi integration is therefore not a setback but a calculated prioritization of a more efficient, purpose-built solution that management believes is ready to scale.
SpaceX CEO Elon Musk announced today that the company will likely attempt to catch the Starship upper stage with its launch tower arms “in a few months.”
In a post on X, Musk wrote, “Looks like we will probably catch the ship with the tower in a few months. If there had been a tower out to sea where we practiced landing the ship, it would have been caught.” He added that the first reflight of a Starship vehicle is expected by the end of 2026 or early 2027, describing it as “a fork in the road of history for consciousness reaching the stars.”
Looks like we will probably catch the ship with the tower in a few months. If there had been a tower out to sea where we practiced landing the ship, it would have been caught.
First reflight of the ship will be either end of this year or early next. That will be a fork in the… https://t.co/O5g9pqrzyo
— Elon Musk (@elonmusk) August 20, 2026
Musk’s prediction comes amid ongoing progress toward full reusability of the Starship system, a two-stage rocket designed for rapid turnaround and dramatically lower launch costs. Catching the upper stage, known simply as “ship,” with the Mechazilla tower’s mechanical arms would mark a major milestone. It would allow both stages to return directly to the launch site for quick refurbishment and reuse, eliminating the need for ocean recovery.
Musk has previously signaled plans for a ship catch. In July, shortly after SpaceX’s wildly successful Starship 13 mission, he stated that the company would attempt to catch the ship with the tower on the next flight unless problems emerged in the mission data review. Earlier comments also outline conditions such as successful soft ocean landings before attempting a land recovery to minimize risk.
SpaceX has solved Starship’s biggest challenge, Elon Musk says
The latest update from Musk adjusts this timeline to a few months, reflecting the iterative nature of the test campaign.
SpaceX has already demonstrated the tower catch technique successfully with the Super Heavy booster on a couple of occasions. The first successful booster catch occurred during Flight 5 in October 2024, when the massive first stage returned to the Starbase pad in Texas and was plucked from the air by the tower arms.
Additional catches followed on later flights, including Flight 7, proving the concept for the booster and building confidence in the system as a whole.
Achieving a similar catch for the upper stage would represent a significant step forward. The ship returns from much higher speeds and greater heat loads after orbital or near-orbital flight. Success would advance SpaceX’s goal of full and rapid reusability, potentially reducing the cost of access to orbit by a factor of 100 or more and supporting ambitions for frequent satellite deployments, lunar missions, and eventual Mars flights.
Musk has long emphasized that true reusability, refueling rather than discarding hardware, is essential for making humanity a multi-planetary species.
As SpaceX continues refining Starship through successive test flights, the coming months will test whether the ambitious catch timeline can be met. The combination of prior booster successes and improving ship landing precision suggests the company is steadily closing in on this historic capability.
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SpaceX has achieved an incredible milestone by launching its 11,000th Starlink satellite into orbit.
This accomplishment occurred during the Starlink Group 17-50 mission, which lifted off on August 19 at 04:01 UTC from Space Launch Complex 4 East at Vandenberg Space Force Base in California.
Falcon 9 launches 24 @Starlink satellites from California pic.twitter.com/UscpmAxDls
— SpaceX (@SpaceX) August 19, 2026
A Falcon 9 rocket carried 24 Starlink V2 Mini satellites on this flight, successfully deploying them into low Earth orbit approximately one hour after liftoff. The first stage booster, identified as B1097 on its twelfth flight, landed successfully on the droneship Of Course I Still Love You in the Pacific Ocean.
According to tracking data compiled around that date, this deployment brought the total number of Starlink satellites in orbit to just over 11,000.
The Starlink program began with test satellites known as Tintin A and B, launched on February 22, 2018. The first operational batch of 60 Starlink satellites followed on May 24, 2019, when a Falcon 9 rocket lifted off from Cape Canaveral. Those initial satellites marked the start of a rapid expansion that has continued for more than seven years.
SpaceX has conducted hundreds of dedicated Starlink missions since then, routinely launching batches of 20 to 30 satellites at a time using reusable Falcon 9 rockets. By mid-2026, the company had already surpassed 12,000 total satellites launched across all versions, with continuous replacements for units that deorbit as designed to manage space debris.
Looking ahead, SpaceX continues to expand the Starlink constellation to enhance global broadband coverage, capacity, and speed. The network already serves millions of users across more than 160 countries and supports applications ranging from residential internet to maritime, aviation, and emergency services.
Future plans center on next-generation hardware, including larger V3 satellites capable of delivering substantially higher throughput, which require the increased payload capacity of the Starship vehicle currently under development and testing.
In July, SpaceX submitted an application to the Federal Communications Commission seeking authority for a Gen3 constellation of up to 100,000 satellites. These spacecraft would operate in very low Earth orbit shells at altitudes near 325 kilometers and 475 kilometers. The filing requests use of existing Ku, Ka, V, and E band spectrum along with new greenfield W and D band frequencies between 92 and 275 GHz.
SpaceX states that the expanded system aims to deliver multi-gigabit symmetrical broadband to consumers, enterprises, governments, and billions of AI-powered devices worldwide while handling a majority of global internet traffic. Approval and subsequent deployment would depend on regulatory review and the operational readiness of Starship for high-volume launches.
This ambitious scale reflects SpaceX’s ongoing commitment to providing ubiquitous high-speed connectivity from space.
Tesla admits to slow Model Y Robotaxi integration, but for a good reason
Elon Musk gives a timeline for SpaceX’s first Starship catch attempt
