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SpaceX gets ready to fire up Falcon Heavy for the first time at Cape Canaveral
As it gradually nears a launch date sometime in late January or early February, SpaceX’s new super-heavy launch vehicle (SHLV) Falcon Heavy has weathered a number of schedule delays in preparation for a historic and crucial moment – its first static fire/test ignition that’s currently scheduled for Tuesday, January 16, beginning at 4pm EST (2100 GMT).
Those focused on the gritty details of SpaceX’s prelaunch procedures will have immediately noted how different Falcon Heavy’s operations are when compared with SpaceX’s workhorse rocket and Heavy’s progenitor, Falcon 9. For a typical launch of Falcon 9, the rocket and payload will normally arrive at the given launch pad around a month or so before the anticipated launch date. Next, the satellite payload is encapsulated inside Falcon 9’s payload fairing, typically two or so weeks before launch. Pad facilities would be thoroughly examined after the previous launch to remedy any wear and tear and ensure that it is in good working order ahead of the next mission. Approximately a week before launch, Falcon 9’s first and second stages are mated together inside the pad’s integration facilities, the pad’s Transport/Erector/Launcher (TEL) is rolled into the integration facilities, and the Falcon 9 booster and second stage (sans payload) are mounted onto the TEL. Finally, the TEL and rocket are rolled out to the launch pad for a brief 3-5 second static fire around 5-7 days before launch. After testing is completed, the TEL is rolled back to the integration facilities, the payload fairing and payload are attached to the rocket, and the whole stack is once more rolled back to the pad, ready for launch.
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- The TEL seen at LC-39A in early 2017. (SpaceX)
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- The base of the TEL now sports multiple additional launch clamps (large grey protrusions) that will be needed for Falcon Heavy’s three first stage cores. (SpaceX)
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- Finally, the fairing is transported vertically to the HIF, where it can be flipped horizontal and attached to its rocket. (Reddit /u/St-Jed-of-Calumet)
For a used booster, this is the sum total of the prelaunch procedures it will go through at the pad, after recovery and refurbishment. For all new boosters, however, SpaceX currently conducts a thorough slate of tests for all Merlin 1D and MVac (2nd stage) rocket engines, as well as both the integrated first and second stages at its McGregor, Texas facilities. These tests last far longer than those conducted at the launch pad, and typically run for the full length of a launch in order to better simulate the stresses flight hardware will end up experiencing. In other words, new Falcon 9 hardware always has to make it through hundreds of seconds of live firing and post-test analysis before finally being shipped to SpaceX’s launch facilities, where it conducts the aforementioned brief static fire at the pad.
A whole new bird of prey
To put it simply, Falcon Heavy is a whole different animal when it comes to prelaunch testing. Due to the rocket’s sheer size and power in its fully integrated state, McGregor simply does not have the capability to conduct the same tests it does with Falcon 9. While two of the first Heavy’s three first stage boosters are modified flight-proven Falcon 9s (from Thaicom-8 and CRS-9), the center core required a far more extensive suite of changes from a normal Falcon 9 in order to survive the added stresses it would experience during a Falcon Heavy launch. Although the full-up vehicle could not be tested in Texas with a full-length firing, each of its three first stages and upper stage went through the same tests as a normal Falcon 9. Before that, both side core and center core structural test articles (STA) went through a large amount of mechanical stress testing to verify that Falcon Heavy’s re-engineered design would be able to easily survive the stresses of launch and then some. In short, months and months of work have gone into the hardware that both preceded and makes up the Falcon Heavy rocket currently vertical and weeks from launch at Kennedy Space Center.
However, SpaceX has learned the hard way that simulation and partial physical testing can only go so far, and cannot be completely trusted when it comes to flying new hardware, as evidenced by the both Falcon 1 and the company’s several first attempts at recovering a Falcon 9 booster (intact, at least…). Even the best and most brilliant engineers and technicians can only do so much without testing the real thing in real conditions, something that can often result in unintended failures – especially the case with new technologies. Falcon Heavy is indeed a new technology to some extent or at least incorporates numerous new technologies that SpaceX has little to no operational experience with. These and relatively untried aspects include the simultaneous ignition and operation of twenty seven already powerful Merlin 1D engines, new stresses on the center booster during launch, a unique non-explosive side booster separation mechanism, the also near-simultaneous recovery of three first stages, and a second stage tasked with placing an unusual payload in the highest orbit SpaceX has yet to attempt.
Hence Elon Musk’s aggressive expectation maintenance over the last year or so, in which he spared no punches while imparting upon several audiences the likelihood that Falcon Heavy’s first launch would fail entirely, and maybe even destroy the launch pad. In reality, SpaceX is clearly doing everything in their power to ensure that the massive rocket’s first launch is a total success.
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- Falcon Heavy vertical at Pad 39A on Thursday, January 11. After a successful rehearsal, the static fire was scrubbed due to a small hardware bug. (Tom Cross/Teslarati)
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- The white bars in this photo are half of Falcon Heavy’s seperation mechanism. A number of actuators take the place of the more common solid rocket motors used with vehicles like the Delta IV Heavy. (SpaceX)
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- Falcon Heavy’s three boosters and 27 Merlin 1D engines on full display. (SpaceX)
What’s next for Falcon Heavy?
Recent delays to the vehicle’s first static fire test at SpaceX’s Launch Complex 39A are strong examples of this cautious approach. While fans and outsiders alike may be nipping at the bit for the vehicle’s long-awaited inaugural static fire and launch, SpaceX clearly is laser-focused on very thoroughly testing the vehicle and is exerting great caution. After the first static fire attempt was delayed, reportedly due to a buggy launch clamp, SpaceX had nevertheless completed its first (presumably successful) wet dress rehearsal (WDR), which saw the vehicle prepared for launch with a full load of propellant and other miscellaneous fluids. After a brief period back horizontal at the pad, likely to repair whatever fault initially caused the delay, Falcon Heavy has been vertical at the pad for the last several days. Intriguingly, albeit unsurprisingly, tank venting was reported early Sunday by local observers. This indicates that SpaceX conducted at least one additional wet dress rehearsal with Falcon Heavy, likely both contributing to an additional delay of the replacement static fire date (Monday) and solidifying confidence in the new test date, Tuesday, January 16.
Compared with the results of the first WDR (a three-day delay), the one day delay that followed Sunday’s rehearsal is great news for what is effectively a mature launch vehicle prototype. SpaceX’s confidence is clearly growing, and while all delays of the static fire will likely push back the launch date at least as much, Falcon Heavy will almost certainly find itself days away from its inaugural liftoff sometime in very late January or February 2018.
Follow along live as Teslarati’s launch photographer Tom Cross covers Falcon Heavy’s exciting series of events while they happen on our Instagram.
Tesla launched the slightly larger Model Y L in China last year, and it became a hit in no time. The longer wheelbase, larger interior, and slightly more forgiving legroom area in the Model Y L became a sought-after possibility for U.S. buyers, who have been begging the company for a larger SUV.
Now, Tesla needs it more than ever, especially considering the Model X was discontinued alongside its Model S sibling earlier this year. It looks to be more likely than ever, and based on recent reports, it will fall in line with CEO Elon Musk’s prediction that it would arrive in the United States in late 2026.
Recent reports from Forbes and Not a Tesla App both have indicated Tesla plans to bring the Model Y L to the U.S. this year. The reports cite “credible sources,” and an analyst from AutoForecast Solutions named Sam Fiorani stated that the car would enter production later this year.
Fiorani said:
“China, Australia, and India are supplied by the factory in China, which will not supply vehicles to the U.S. Production of the Model Y L is expected to begin in the U.S. in September, which will lead to sales beginning before the end of 2026.”
Production would take place at Gigafactory Texas.
Additionally, a few Model Y L units have been spotted under wraps in the United States, giving more indication that Tesla plans to bring the vehicle to the U.S. When Tesla is close to launching a vehicle in the U.S., it is not uncommon to see these models with the exact car covers that you see below:
Looks like another Tesla Model Y L was spotted in the U.S.! pic.twitter.com/jhsdkcN5Go
— TESLARATI (@Teslarati) June 26, 2026
It makes sense, especially considering Musk hinted the Model Y L would make it to the U.S. in late 2026, but it was up in the air. The CEO said the advent of self-driving might not warrant a larger SUV coming to the U.S. market specifically.
The problem is, consumers do not want to hear that. They love Tesla’s tech, FSD, and other features, but they need more space for growing families. The Model X is gone, and the most anyone can fit in a Tesla right now is seven people in the seven-seat Model Y. That back row is truly only large enough to fit small children comfortably.
Tesla fans have requested a full-size SUV, and the company has made some hints that it could be in the plans.
The Model Y and Model Y L differ noticeably in size, with the Model Y L being a stretched, six-seat variant designed for great interior room. The Standard Model Y measures approximately 4,790mm in length, 1,982 mm in width with the mirrors folded, 1,624mm in height, and 2,890mm in wheel base.
In contrast, the Model Y L extends to be about 4,969–4,976mm long (roughly 179mm or 7 inches longer), stands 1,668mm tall (+44mm), and features a significantly longer 3,040 mm wheelbase (+150mm), while maintaining the same width.
This elongation primarily benefits rear passenger space and enables a 2+2+2 seating layout with captain’s chairs, though it slightly reduces maximum cargo capacity behind the rearmost seats and adds a bit of overall mass and turning radius. The result is a more spacious family hauler that still shares the core footprint and agile character of the original Model Y.
In a major development that will inevitably strengthen Tesla’s dominant position in the American EV market, Polestar has been effectively banned from selling new vehicles in the United States, starting with the 2027 model year.
The U.S. Department of Commerce denied Polestar authorization under the Connected Vehicle Rule, which prohibits vehicles containing certain connected technologies (Cellular, Wi-Fi, Bluetooth, etc.) linked to China or Russia due to national security risks, including potential data collection on American drivers.
🚨 A Tesla competitor goes down
Polestar will no longer sell new vehicles in the United States starting with the 2027 model year.
The U.S. Department of Commerce denied the brand authorization under the Connected Vehicle Rule, which restricts the sale of cars with software and… pic.twitter.com/TrwnQeoiES
— TESLARATI (@Teslarati) June 25, 2026
Polestar, which is majority-owned by China’s Geely Holding, could not obtain the required exemption despite producing some models domestically.
Polestar confirmed it will sell off any remaining inventory of the Polestar 3 and Polestar 4 models, while continuing service and warranty support for existing customers. No new models or major refreshes will reach U.S. buyers, and the company is pivoting its growth strategy to Europe, where it already generates the vast majority of its sales.
The outcome removes a direct premium EV competitor that had positioned itself as a stylish, performance-oriented alternative to Tesla’s lineup. The Polestar 2 challenged the Model 3, while the Polestar 3 and 4 targeted segments overlapping with the Model Y and upcoming Tesla offerings. Polestar’s U.S. sales had already been sluggish amid intense competition and slower demand, representing just 6 percent of its global volume in the first quarter of 2026.
While Polestar was not on Tesla’s level in the U.S., it still places a dent in the evergrowing field of Tesla competitors in the country, where it has long dominated EV sales.
Tesla faces none of these hurdles. As a U.S.-founded and U.S.-headquartered company with major manufacturing in Fremont, Austin, and Nevada, Tesla’s vehicles are built with compliant domestic and allied supply chains. Its Full Self-Driving technology, over-the-air software updates, and vertically integrated ecosystem were developed entirely in-house without foreign ownership entanglements that trigger national security reviews, at least in the U.S.
Of course, it did face a similar threat in China a few years back:
Elon Musk responds to reports of Tesla ban among China’s military over security concerns
The Connected Vehicle Rule, first advanced under the prior administration and upheld under the current one, is part of a broader U.S. effort to protect the domestic auto industry and critical technology from Chinese influence. High tariffs on Chinese-made EVs and related restrictions have already reshaped the market. Tesla benefits directly: it avoids these barriers while continuing to lead in U.S. EV sales volume, Supercharger network expansion, and energy storage integration.
By clearing Polestar from the new-vehicle playing field, the policy reduces competitive pressure in the premium and performance EV segments where Tesla has invested billions. American consumers seeking cutting-edge electric vehicles now have one fewer option tied to foreign adversaries — and one clearer path to the market leader that has driven the EV transition from the start.
For Tesla, this is more than regulatory relief. It is a strategic tailwind that reinforces its position as America’s premier EV innovator at a time when domestic manufacturing and technological independence matter most.
Tesla Cybercab stands to gain from new rules that the Trump Administration is aiming to enforce on autonomous vehicles. On Thursday, NHTSA, under the Trump Administration’s U.S. Department of Transportation, commenced rulemaking on the Federal Motor Vehicle Safety Standards (FMVSS).
This effort aims to eliminate the mandate for manual brake pedals in vehicles that are designed to be driven exclusively by automated driving systems. This would impact the Tesla Cybercab, which the company has stated would operate without a steering wheel or pedals.
Tesla Cybercab launch is imminent after latest sighting at Giga Texas
The Trump Administration is looking to revise FMVSS No. 135, which requires standard braking systems on light-duty vehicles.
Currently, the regulation requires light-duty cars to use traditional manual braking systems that allow operators to slow the vehicle. With the advent of self-driving in the U.S., these regulations need updating, and these are the changes that could come to FMVSS No. 135:
- Removes requirements for hand- or foot-operated brake controls for vehicles designed never to be operated by a human. Existing rules still apply to AVs that retain manual controls.
- All subject vehicles must still meet the same stopping distance performance criteria via alternative testing procedures.
- While this update ensures AVs can physically stop when commanded, NHTSA is separately developing safety performance requirements for AVs in real-world driving scenarios.
- NHTSA will continue to use its broad defect enforcement authority to investigate unsafe ADS behavior and oversee recalls.
As autonomy becomes a greater part of passenger travel, these types of rule adjustments will be more than reasonable. It will give manufacturers the ability to self-certify their vehicles and avoid any red tape that could ultimately delay the deployment of these vehicles.
Administrators are also incredibly excited about the opportunity to play a role in the advancement of self-driving vehicles.
“We are at the cusp of the greatest technological revolution in vehicle technology since the innovation of the Model T,” NHTSA Administrator Jonathan Morrison said. “If we want America to lead the way, we have to reimagine our regulatory framework. That’s why under Secretary Sean Duffy’s AV Framework, NHTSA is tearing down pointless barriers to innovative designs while strengthening the fundamental safety requirements that matter and holding AV developers accountable for safe performance.”
The Cybercab entered mass production at Gigafactory Texas in April. Tesla ultimately plans to push the vehicle into its Robotaxi fleet, potentially when frameworks like these are established.
Tesla looks keen to bring larger Model Y L to the U.S.
One of Tesla’s biggest threats just got banned in the U.S.
