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SpaceX’s Crew Dragon and Falcon 9 head to Pad 39A for historic launch debut

Crew Dragon and Falcon 9 B1051 stand vertical at Pad 39A during preparations for a late January static fire test. (SpaceX)

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NASA has confirmed that a Feb. 27th launch readiness review (LRR) prior to the orbital debut of SpaceX’s Crew Dragon spacecraft concluded with all parties remaining “go” for the historic launch.

Scheduled to liftoff at 2:48 am EST (07:48 UTC) on March 2nd, Falcon 9 and Crew Dragon can now begin to roll out to Launch Complex 39A (‘Pad 39A’) and complete final preflight checks approximately 24-48 hours before launch. After relentless work over the last few months, SpaceX has also largely completed a significant series of changes – many aesthetic – to Pad 39A, giving the historic complex a sleek new black and white paint scheme and enclosed tower (FSS).

Falcon 9, Crew Dragon “go” for launch

Following up the Flight Readiness Review (FRR) five days later, the completion of the Launch Readiness Review (LRR) effectively means that SpaceX can now proceed into launch operations a bit like any other mission, rolling the rocket and spacecraft out to Pad 39A, taking the assembly vertical, and finally completing (relatively) routine preflight preparations. SpaceX pad engineers and technicians have already completed a wet dress rehearsal (WDR) and static fire test over the last two months, meaning that they have already gained a significant amount of real-world experience working with and operating the brand new Crew Dragon spacecraft and its human-rated Falcon 9 rocket.

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This milestone has been the better part of a decade in the making, beginning in 2009 or 2010 (depending on definitions) with funding from NASA dedicated to what would ultimately become the Commercial Crew Program (CCP). SpaceX did not begin to receive rewards or dedicated Crew Dragon-related funding until April 2011, when NASA awarded the company $75M to develop the spacecraft’s proposed integral abort system, relying on a newly developed Super Draco engine. In August 2012, NASA awarded Sierra Nevada, SpaceX, and Boeing several hundred million dollars each to continue serious development of their respective crewed spacecraft and launch vehicles, followed in 2014 by firm long-term contracts with SpaceX and Boeing to bring their Crew Dragon and Starliner vehicles to fruition.

 

Of note, SpaceX’s contract was valued at $2.6B, while Boeing received $4.2B, a full 60% more to complete an effectively identical task. Sadly, the US Congress systematically underfunded CCP during its formative years, largely a consequence of entrenched political and financial interests in preferentially funding NASA’s own SLS rocket and crewed Orion spacecraft above and at the cost of other rocket and spacecraft development initiatives. Insufficient funding likely contributed heavily to the years of delays subsequently suffered by the program and its commercial providers, pushing a nominal launch debut target from 2015 to 2017 before ultimately moving to 2018 and finally 2019, largely a result of unsurprising technical challenges faced by each provider as they entered into hardware- and testing-rich phases of development.

After approximately 5-6 years of concerted work, SpaceX and NASA are now as ready as they’ll ever be to conduct the first orbital launch of the Commercial Crew Program, to be followed as early as by Boeing’s own uncrewed orbital demonstration of its Starliner spacecraft. For those that have followed CCP for even part of its years-long saga, it’s more than a little surreal to be faced with the reality that such a milestone is barely two days distant.

Pad 39A: more than just a fresh coat

Meanwhile, SpaceX’s leased Pad 39A launch complex has undergone its own significant changes. Dating back to NASA’s Apollo Program, Pad 39A supported all but one of Saturn V’s 13 launches and more than 80 Space Shuttle launches before SpaceX took over the pad in 2014. In the five years the company has leased the facility, a range of changes have been made to the pad’s hardware, support facilities, and the primary metalwork known as service structures, one fixed (FSS) and one rolling (RSS). Aside from a bare skeleton of the RSS hinge, SpaceX has completely removed several hundred tons of Shuttle support hardware, while the FSS (the skyscraper-like rectangular tower) has remained largely unchanged, aside from the installation of a new level and Crew Dragon’s Crew Access Arm (CAA) on the ~110m (350 ft) tower.

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Most recently, the company has pursued a series of visually distinct changes to tower, painting it almost entirely black with white highlights and installing partially transparent black plexiglass panels along the full length of at least 2-3 of its four walls. While the paint color is almost certainly aesthetically motivated (it matches Falcon 9, Crew Dragon, and the access arm), the decision to enclose all or most of the FSS will likely be very well received the astronauts and technicians it will ultimately support, especially if SpaceX manages to keep out Florida’s notorious mosquitoes.

If SpaceX’s uncrewed DM-1 Crew Dragon demonstration is a success, the company could follow it up with Crew Dragon’s first launch with astronauts aboard as early as July 2019, officially returning 39A to active place in human spaceflight and marking the end of more than eight years spent without a domestic solution for transporting US astronauts into orbit.


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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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Starship’s next chapter: SpaceX eyes tower catch after flawless Flight 11

Elon Musk has revealed the tentative timeframe for Starship’s next milestone that would push the spacecraft’s reusability to a whole new level. 

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Credit: SpaceX

Elon Musk has revealed the tentative timeframe for Starship’s next milestone that would push the spacecraft’s reusability to a whole new level. 

Following Flight 11’s flawless mission, Musk noted on X that SpaceX will be aiming to catch the Starship Upper Stage with its launch tower as early as spring 2026. This should pave the way for SpaceX to start optimizing Starship for maximum reusability.

Flight 11 closes the Starship V2 chapter on a high note

Starship’s eleventh flight, which launched from Starbase, Texas, achieved every major mission objective. The Super Heavy booster completed a successful ascent, hover, and soft splashdown in the Gulf of America, while the upper stage executed an orbit burn, deployed Starlink simulators, and returned with a controlled reentry over the Indian Ocean.

This mission officially closed the chapter on the second-generation Starship and first-generation Super Heavy booster, and it set the stage for a redesigned vehicle built for orbital payload missions, propellant transfer, and beyond. It should be noted that Elon Musk has mentioned on X that Starship V3, at least if things go well, might be capable of reaching Mars.

Elon Musk confirms tower catch attempt set for spring

After Flight 11’s success, Musk confirmed that SpaceX will attempt to catch the Starship Upper Stage with its launch tower arms, fondly dubbed by the spaceflight community as “chopsticks,” in the coming months. Musk’s announcement came as a response to an X user who asked when the tower could start catching the Starship Upper Stage. In his reply, Musk simply wrote “Springtime.” 

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Starship’s reusability is a key feature of the spacecraft, with SpaceX aiming to achieve a launch cadence that is almost comparable to conventional aircraft. For such a scenario to be feasible, launch tower catches of both Starship’s Upper Stage and its Super Heavy booster have to be routine.

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Elon Musk

SpaceX is preparing to launch Starship V2 one final time

The mission will test reentry dynamics, new landing burn configurations, and heat-shield upgrades.

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Credit: SpaceX/X

SpaceX is preparing to launch its final Starship V2 rocket on October 13, 2025. The launch closes the curtain on Starship V2 and marks the start of the ambitious spacecraft’s V3 era. 

Liftoff for Flight 11 is scheduled for 7:15 p.m. ET from Starbase in South Texas, with a 75-minute launch window. The mission will test reentry dynamics, new landing burn configurations, and heat-shield upgrades ahead of the transition to the next-generation Starship V3.

Starship V3 and beyond

Elon Musk confirmed on X that Starship V3 is already in production and could be “built & tested” and perhaps even flown before the end of 2025. The new version is expected to feature major performance and scale improvements, with Musk stating that Starship V3, provided that things go well, might be capable of reaching Mars, though V4 is more likely to perform a full-scale mission to the red planet. 

“Only one more V2 left to launch,” Musk wrote back in August following Starship’s successful Flight 10 mission. In another post, Musk stated that “Starship V3 is a massive upgrade from the current V2 and should be through production and testing by end of year, with heavy flight activity next year.”

Starship V2’s final mission

Flight 11 is designed to push the limits of Starship V2. SpaceX engineers have intentionally removed heat-shield tiles in vulnerable areas to analyze how the vehicle handles atmospheric reentry under stress, as noted in a Space.com report. The test will also refine subsonic guidance algorithms and new landing burn sequences for the Super Heavy booster that would be used for Starship V3.

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“Super Heavy will ignite 13 engines at the start of the landing burn and then transition to a new configuration with five engines running for the divert phase. Previously done with three engines, the planned baseline for V3 Super Heavy will use five engines during the section of the burn responsible for fine-tuning the booster’s path, adding additional redundancy for spontaneous engine shutdowns. 

“The booster will then transition to its three center engines for the end of the landing burn, entering a full hover while still above the ocean surface, followed by shutdown and dropping into the Gulf of America,” SpaceX wrote in a post on its official website.

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News

Starlink makes a difference in Philippine province ravaged by typhoon

The Severe Tropical Storm battered the province, leaving communications networks in the area in shambles.

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Credit: Starlink/X

The Philippines’ Department of Information and Communications Technology (DICT) is using Starlink to provide connectivity in the municipality of Masbate, which was affected by Severe Tropical Storm Opong (international name Bualoi). 

The Severe Tropical Storm battered the province, leaving communications networks in the area in shambles.

Starlink units enhance connectivity

DICT Secretary Henry Aguda visited the province to assess internet and communications infrastructure and deliver 10 additional Starlink satellite units, according to the Philippine News Agency. The is move aimed at strengthening emergency response and restore digital access to the area.

Aguda met with Masbate Governor Richard Kho during his visit and joined telecommunications representatives in inspecting provincial offices, free charging stations, and Wi-Fi connectivity sites for residents. 

According to DICT officer-in-charge Rachel Ann Grabador, three Starlink units, 10 routers, and a 2kW solar-powered station have already been deployed in the province following the typhoon. The units have been installed at key facilities such as Masbate Airport’s communications tower and the Masbate Provincial Hospital’s administrative office. 

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Game-changing technology

Thanks to its global coverage and its capability to provide high-speed internet connectivity even in remote areas, Starlink has become the best communications solution that can be deployed in the aftermath of natural disasters. Its low-cost kits, which are capable of of providing fast internet speeds, are also portable, making them easy to deploy in areas that are damaged by natural disasters.

As noted in a Space.com report, there are currently 8,475 Starlink satellites in orbit, of which 8,460 are working, as of September 25, 2025. Initially, SpaceX had filed documents with International regulators to place about 4,000 Starlink satellites in Low Earth Orbit. Over time, however, the number of planned Starlink satellites has grown, with SpaceX aiming to launch as many as 42,000 Starlink satellites to fully connect the globe.

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