SpaceX

Although 58% of Americans believed it was essential that the United States continue to be a world leader in space exploration as of 2015, NASA’s annual budget has declined by over 50% since the space race era of the 1960s. In addition to sending the first humans to space and the moon, the space race and the decades of space exploration that followed have catalyzed innovations in GPS, cameras, and weather tracking systems that are considered critical technologies today. Space-based capabilities have also become increasingly critical for military applications, with most countries relying on space technology for communications, munition guidance, and reconnaissance. The reduction in NASA's budget, however, has led to a deceleration in space exploration and technology; The last time NASA built its own spacecraft to venture into space was in 2011.

SpaceX was founded to address this slowdown by providing the space sector with more regular and cost-effective launches. Traditional rockets have been destroyed by completing a single mission and required rebuilding after each flight, making launches both infrequent and costly. SpaceX approaches this problem with reusable rockets, such as the Falcon 9, enabling more frequent launches to restock the International Space Station (ISS) or launch Starlink satellites. The rapid growth in satellite fleet counts enabled by SpaceX has led to a new satellite renaissance.

SpaceX's long-term vision is to establish a permanent settlement on Mars to transform humanity into a multi-planetary species. In the meantime, SpaceX has grown to dominate the rocket flight and satellite launch market, with about two-thirds of NASA's launches being handled by SpaceX in 2020, and is becoming a critical institution in the second space race and the emerging space economy. As part of this growth, SpaceX acquired the foundation AI model and social media company xAI, expanding its scope into space-based data centers and solar power.

SpaceX was founded in 2002 by Elon Musk (CEO, CTO), a serial entrepreneur who also founded Tesla, xAI, OpenAI, Neuralink, and The Boring Company. In his youth, Musk says he read and was inspired by Isaac Asimov's Foundation series, which he tweeted was "fundamental to the creation of SpaceX.” He said in a 2017 interview:

In 2001, one year before founding SpaceX, Musk joined the Mars Society, an organization for Mars colonization enthusiasts. He later donated $100K to fund a research station in the desert that completed research in simulated Mars conditions. Mars Society member Dr. Robert Zubrin has claimed that he was "among those who helped convince [Musk] to make Mars his calling."

Musk's initial proposal for colonization was to send a greenhouse to Mars. In late 2001, Musk traveled to Moscow with Jim Cantrell and Adeo Ressi to attempt to buy an intercontinental ballistic missile (ICBM) to be used as a rocket for this mission. Despite repeated attempts to purchase ICBMs, the Russians would not sell him a rocket, so he decided to build one himself.

In 2002, eBay acquired PayPal for $1.5 billion, of which Musk received $175.8 million after having served as CEO of the company. Using $100 million from this payout, Musk founded SpaceX and hired founding aerospace engineers Tom Mueller (former Propulsion CTO, now CEO of Impulse Space) and Chris Thompson (former VP of Operations, now CTO of Phantom Space). SpaceX’s early hires also included Gwynne Shotwell (COO).

Starlink, a subsidiary of SpaceX, was publicly launched in January 2015 with the goal of building and operating a constellation of satellites, launched by SpaceX, to provide internet to remote geographies. In 2016, the company filed with the FCC to operationalize the new satellite system and trademarked the name “Starlink,” inspired by John Green's novel, The Fault in Our Stars. The company’s decision to begin satellite production in addition to launch was motivated by the growth of the satellite internet services market. Musk has stated that Starlink’s goal is to generate a significant revenue stream to fund a city on Mars. In addition to providing global internet coverage on Earth, SpaceX has long-term plans to develop and deploy an internet constellation around Mars.

Falcon 1

Source: Historic Spacecraft, Contrary Research

SpaceX’s first launch vehicle was the Falcon 1, designed to be a low-cost alternative to existing small satellite launch vehicles built by incumbent aerospace companies like Lockheed Martin and Boeing. The Falcon 1 had three initial unsuccessful launches in 2006 and 2007, generating skepticism about the company’s capabilities.

In September 2008, Falcon 1’s fourth launch successfully carried a dummy payload (the Ratsat) into low Earth orbit and became the first privately funded and developed launch vehicle to enter orbit. Falcon 1’s fifth and final mission occurred in 2009, when it successfully launched the Malaysian satellite RazakSAT into low Earth orbit. This was the first time a privately funded company launched a commercial satellite, solidifying SpaceX’s presence in the commercial launch market. Falcon 1 provided crucial experience and data that would inform the development of SpaceX's later rockets, including the Falcon 9.

Falcon 9

Source: SpaceX

Following the retirement of Falcon 1 in 2009, SpaceX redirected its focus to the Falcon 9 rocket, which uses nine SpaceX-designed Merlin engines, the same engines that powered the Falcon 1. SpaceX began developing the Falcon 9 in 2006 after winning a NASA contract to deliver cargo and crew to the ISS, but the first launch did not occur until June 2010.

While SpaceX describes the Falcon 9 as "the first orbital class rocket capable of reflight,” it is only partially reusable as its second stage is single-use. Launches using the Falcon 9 reduce the traditionally exorbitant costs of rocket launches from up to $30K per pound of payload (on NASA’s space shuttles) to as low as $1.2K per pound. Due in part to these savings, SpaceX has been contracted by both private companies and federal agencies for launches, including Amazon’s Project Kuiper, SpaceX’s own Starlink, and NASA’s ISS resupply missions. In 2022, Falcon 9 had been launched 61 times, making up 70% of all rockets launched from the United States that year. As of March 2026, Falcon 9 rockets had launched over 610 times with only three failed launches.

SpaceX has built five versions of the Falcon 9, ranging from the Falcon 9 Block 1 to the Falcon 9 Block 5. The Block 5 is considered the most reliable launch vehicle in history as of March 2026, with 554 successful launches and just one failed launch since its debut in May 2018. This includes one launch with astronauts onboard, in May 2020, becoming the first crewed orbital spaceflight launched from the United States since 2011.

Falcon Heavy

Source: SpaceX

The Falcon Heavy was designed to lift heavier payloads than the Falcon 9. As of March 2026, the Falcon Heavy has the second-highest payload capacity of any currently operational launch vehicle and the third-highest of any launch vehicle ever to reach orbit. The Falcon Heavy consists of three reusable Falcon 9 engine cores powered by 27 Merlin engines. Together, these engines generate a combined 5 million pounds of liftoff thrust, giving the Falcon Heavy the capacity to lift nearly 64 metric tons into orbit, which SpaceX notes is the equivalent of a fully loaded 737.

SpaceX conducted Falcon Heavy’s maiden launch in February 2018, which carried a Tesla Roadster to orbit the sun. For Falcon Heavy’s second launch in April 2019, SpaceX successfully recovered all three booster rockets after deploying the Arabsat-6A satellite. In July 2023, the Falcon Heavy launched the Jupiter 3 satellite, the largest and heaviest communications satellite ever built, weighing over 20K pounds. The Falcon Heavy has completed 11 missions, 19 total landings, and 16 total reflights as of March 2026.

Dragon

Source: SpaceX

SpaceX’s first foray beyond launch rockets was its Dragon capsule, a cargo transportation vessel for materials and passengers, announced in 2005. By December 2010, the first operational Dragon spacecraft was launched on Falcon 9's second flight. In 2012, the Dragon-1 became the first commercial spacecraft to dock with the ISS and deliver cargo. The spacecraft completed over 20 additional cargo missions to the ISS between 2010 and 2020. In 2020, Dragon-1 was replaced with an improved Dragon-2, which had two configurations: Crew Dragon and Cargo Dragon. According to SpaceX, the Crew Dragon can carry up to seven passengers to and from Earth orbit.

SpaceX’s May 2020 Crew Dragon flight was not only the first time the US had been able to deliver astronauts to the ISS since 2011 but also the first time a private company launched astronauts into orbit. The Dragon was also the first spacecraft to bring tourists to the International Space Station in April 2022 (each passenger paid $55 million for the trip).

Dragon also served as a fallback for Boeing’s Starliner, another passenger spacecraft, after its failure in February 2025. The Starliner capsule suffered serious propulsion failures during its first crewed test flight in June 2024, stranding astronauts Butch Wilmore and Suni Williams on the ISS when NASA deemed it too risky to bring them home aboard it. After sending Starliner back to Earth empty, NASA used SpaceX’s Crew-10 launch in March 2025 to rotate in a replacement crew and clear the way for Wilmore and Williams to return aboard Crew Dragon. As of March 2026, the Dragon has had 55 completed missions, 50 visits to the ISS, and 34 total reflights.

Starship

Source: SpaceX

SpaceX's Starship system consists of its Starship spacecraft and Super Heavy rocket powered by 33 Raptor engines. According to SpaceX, Starship is designed to be a "fully reusable transportation system designed to carry both crew and cargo to Earth orbit, the moon, Mars and beyond" and will be the "most powerful launch vehicle ever developed,” with the ability to carry up to 250 metric tons of payload into space.

Capable of carrying up to 100 people on interplanetary flights, Starship is intended to serve multiple purposes, including satellite delivery, establishing a base on the moon, and point-to-point transport on Earth. Starship is designed to transport payloads "farther and at a lower marginal cost per launch" than its Falcon vehicles. This cost-effectiveness is particularly crucial for establishing bases on the moon and beyond, which will require transporting substantial cargo volumes. The company also intends to use Starship for fast Earth transport; by enabling travelers to leave orbit, most international trips would last under 30 minutes.

Construction of initial prototypes, like a test vehicle named Starhopper, began in early 2019. The first near-orbital test flight of the Starship took place on April 20, 2023. The rockets rose about 24 miles from the ground before falling six miles and self-destructing, due to the loss of multiple engines. Since then, Starship has followed up with tests in November 2023, March 2024, and June 2024. A fifth launch took place in October 2024, when Starship’s Super Heavy booster was caught using a pair of “chopsticks” from SpaceX’s launch tower, known as Mechazilla. The successful test was described as an "unprecedented feat of engineering.”

Starship's progress since that milestone has been mixed. In January 2025, Flight 7 broke apart during ascent after booster recovery, scattering debris over the Caribbean and disrupting commercial air traffic. In March 2025, Flight 8 failed in a similar phase of launch, again producing debris and disrupting over 200 flights. In May 2025, the FAA cleared Flight 9 for launch with expanded debris hazard zones and approved SpaceX’s first attempt to reuse a previously flown Super Heavy booster, allowing SpaceX to “increase Starship operations from five up to 25 per year at Boca Chica, Texas.” By August 2025, Flight 10 achieved Starship’s first successful deployment of mock Starlink satellites and tested upgraded heat-shield hardware during reentry. In October 2025, SpaceX completed its 11th test flight as the last mission before transitioning to a more advanced prototype designed around future refueling and lunar-mission requirements.

The most important near-term mission for Starship is successfully carrying out NASA’s Artemis Human Landing System program, which aims to return humans to the moon. SpaceX remains NASA’s primary lunar-lander provider for Artemis III and Artemis IV, but the timeline for those missions has changed materially as technical issues remain unresolved. NASA said in February 2026 that it would add a new Earth-orbit test mission to the Artemis architecture to rehearse rendezvous and docking with commercial landers before committing astronauts to a lunar landing. In March 2026, NASA’s Office of Inspector General said Starship’s lunar-lander development had slipped by at least two years relative to earlier expectations and that the first crewed lunar landing using Starship is now expected no earlier than 2028. The OIG noted that there currently do not exist viable astronaut rescue plans and has recommended strengthening systems to prolong astronaut survival if technical failures occur.

Super Heavy

The Super Heavy booster is the first stage of SpaceX’s fully reusable Starship system, designed to provide the thrust needed to launch Starship into orbit. Standing at 233 feet tall and powered by 33 Raptor engines, it is the largest rocket booster by thrust ever built as of March 2026. The Super Heavy generates more than 16 million pounds of thrust at liftoff, surpassing NASA’s Saturn V in power. Its primary role is to carry the Starship spacecraft (which handles the payload and mission objectives) into low Earth orbit before detaching and returning to Earth for reuse, either landing on an ocean platform or near the launch site. This reusability is key to reducing launch costs and enabling high-frequency, affordable missions for cargo, crewed missions, and future travel to Mars.

The Super Heavy booster was manufactured using 300-series stainless steel. Originally intended to be made from carbon fiber, the switch to stainless steel allowed SpaceX to cut material costs while enhancing the durability and thermal resistance of the booster. Stainless steel can endure both extremely high temperatures (up to 870 degrees Celsius) and the cryogenic cold of space (-270 degrees Celsius). Additionally, its high ductility and toughness make it less prone to fracturing in harsh environments like space or planetary re-entry. SpaceX has also developed a new alloy, 304L, with higher chromium content to boost corrosion resistance, ensuring the booster’s longevity for multiple reuses. This design enables the booster to better withstand the challenges of interplanetary travel and repeated launches.

Mechazilla

Mechazilla is a 400-foot launch tower system designed to catch and recover the Super Heavy booster mid-air after it returns from space, eliminating the need for traditional landing legs. The structure consists of two mechanical arms, dubbed "chopsticks", which can move both vertically and horizontally. These arms are designed to stabilize and guide the booster as it descends toward the launch pad. Musk described Mechazilla as “a custom-built tower with arms that are designed to catch the largest flying and heaviest flying object ever made and pluck it out of the air. It'll weigh about 250 tons. We'll make that lighter over time.”

Mechazilla reduces turnaround time between launches because it enables boosters to be refurbished and reused. The device stands next to the launch pad at SpaceX's Boca Chica site in Texas, where engineers spent “tens of thousands of hours” constructing and testing the infrastructure. Using this device removes the need for legs on Super Heavy boosters, further optimizing payload capacity and minimizing the wear and tear on the rocket hardware.

Starlink

Source: SpaceX Starlink, Contrary Research

Starlink is a satellite constellation system developed by SpaceX starting in 2018. The system’s primary focus is on democratizing high-speed and low-cost internet access in locations where traditional ground infrastructure has been economically or logistically challenging to construct, such as rural and remote areas, oceans, and skies. In an August 2024 interview with Gwynne Shotwell, she described the abilities of the system:

Unlike traditional internet services that rely on ground cables, Starlink satellites communicate through space, beaming information between satellites and user-installed devices on Earth. This system enables internet access virtually anywhere on the planet. As of March 2026, SpaceX hopes to eventually have a fleet size of over 42K satellites at low Earth orbit (LEO). At 342 miles above the Earth, the system is intended to provide low-latency internet and improve the speed and quality of connectivity. Starlink satellites pass through a SpaceX ground system to be distributed to consumers through residential, portable, maritime, aviation systems, and more. In January 2024, SpaceX launched a new batch of Starlink satellites that can connect directly to a user’s cell phone. With partnerships with T-Mobile and other regional providers, this direct-to-cell Starlink system aimed to support texting in 2024, with voice and data services to start in 2025.

Since then, Starlink’s direct-to-cell strategy has moved toward regulated commercial deployment. In November 2024, the FCC partially granted SpaceX’s application to provide Supplemental Coverage from Space within the United States in partnership with T-Mobile and to operate direct-to-cell service outside the United States using previously authorized Gen2 satellites. In March 2025, the FCC conditionally granted SpaceX a waiver permitting higher-power out-of-band emissions for the service, allowing a more capable direct-to-cell offering. T-Mobile began commercial rollout of the service as T-Satellite with Starlink in July 2025, initially offering SMS, MMS, picture messaging, and short audio clips, and expanded the product in October 2025 to support data-based app experiences over the satellite network.

In January 2026, the FCC further expanded Starlink’s regulatory runway by authorizing an additional 7.5K Gen2 satellites, bringing SpaceX’s total Gen2 authorization to 15K satellites and explicitly supporting enhanced broadband, mobile, and supplemental-coverage-from-space services. As of March 2026, over 9.9K Starlink satellites were in orbit, with more than 10 million customers across 160 countries, making SpaceX the world’s largest satellite operator. As of March 2026, SpaceX has invested $10 billion in the project.

Starshield

Starshield is SpaceX’s government-focused satellite business, publicly unveiled in December 2022. Whereas Starlink is built for commercial broadband, Starshield is positioned as a secured satellite network for government customers, which leverages SpaceX’s existing Starlink manufacturing and launch capability for national security missions. The development of Starshield followed the high-profile use of Starlink in Ukraine during the early months of Russia's invasion in 2022. At that time, SpaceX activated the Starlink service in Ukraine and sent large shipments of terminals for both civilian and Ukrainian military use. By July 2022, more than 42K Starlink terminals were in use by the Ukrainian army, showcasing the application of satellite-based communications systems in defense and national security. Starshield’s three initial focus areas are Earth observation, communications, and hosted payloads.

Although the Starshield brand was only announced in 2022, SpaceX began moving into defense satellite manufacturing in 2020. In October 2020, the Space Development Agency awarded SpaceX’s first government contract for satellite construction, a $149 million agreement to build four Tracking Layer satellites for Tranche 0 of what is now the Proliferated Warfighter Space Architecture. Tracking Layer satellites are designed to help detect and track advanced missile threats from low Earth orbit.

The US Space Force awarded SpaceX its first Starshield contract, a one-year agreement with a maximum value of $70 million, in September 2023. This contract is for end-to-end connectivity service via the Starlink constellation, including user terminals, ancillary equipment, network management, and other related services.

In March 2024, it was reported that SpaceX’s Starshield unit was building a separate $1.8 billion spy-satellite network for the National Reconnaissance Office, consisting of hundreds of low-Earth-orbit satellites with imaging sensors and inter-satellite laser links. Build-out of these systems ramped quickly, with the first launch of the Starshield architecture taking place in May 2024, the tenth mission in April 2025, and the twelfth in January 2026. In April 2025, the NRO also said it had launched more than 200 satellites through SpaceX over the prior two years, with additional launches planned through 2029.

xAI

In February 2026, SpaceX acquired xAI, the foundation AI model company responsible for chatbot and coding assistant Grok, as well as the social media platform X (formerly Twitter). As of March 2026, the commercial products offered by xAI largely fall outside the scope of SpaceX, but Musk has indicated that teams from the two companies will work jointly in the future on space-based AI data centers and real-time information transfer.

Customer

Launch Customers

SpaceX's earliest commercial contract was awarded by NASA, totalling $396 million for the development of the Dragon spacecraft to fly resupply missions for the ISS in 2006. NASA was also SpaceX's first customer for the Falcon 9 after its initial flight in 2010.

In August 2021, NASA awarded a $2.9 billion contract to SpaceX to use Starship to take astronauts to the moon for its Artemis III mission. In November 2022, it also awarded a contract modification worth roughly $1.2 billion to SpaceX for Starship to support other Artemis lunar landing program missions.

In August 2022, NASA awarded SpaceX a contract worth $1.4 billion under its Commercial Crew program to deliver astronauts and cargo to and from the ISS. In February 2023, SpaceX was included in a NASA payload contract of $100 million. In March 2024, NASA used SpaceX for the 30th time to resupply the ISS with over 6K pounds of materials and scientific equipment. In June 2024, NASA awarded SpaceX a $843 million contract to develop a spacecraft that will deorbit the ISS in 2030.

Source: NASA

Other SpaceX customers include commercial satellite operators such as SES, which began a contract to use the Falcon 9 to launch its satellites in 2016. Satellite operator Telesat signed a launch agreement with SpaceX the same year. Another operator that uses SpaceX is Intelsat, which SpaceX launched satellites for in August 2023 as part of a push by the FCC for a "fleet-wide refresh" to clear the way for 5G networks. Two months later, SpaceX and the European Space Agency signed an agreement for two Falcon 9 launches in 2024, each carrying two Galileo satellites.

SpaceX is also a major provider for private spaceflight companies, such as Axiom Space, which signed a deal with SpaceX in 2021 for three private Dragon flights to the ISS, including a successful flight in April 2022 where three multimillionaires visited the ISS aboard a Dragon capsule for $55 million each. Space Adventures is another customer of SpaceX; it signed a contract with SpaceX for a Dragon mission in February 2020. In December 2023, Amazon purchased three Falcon 9 launches to support the deployment of its Project Kuiper satellite constellation.

Starlink Customers

An estimated 25% of the world’s population lacks access to the internet, amounting to 2.2 billion people who are offline. Of that 2.2 billion, 96% live in developing countries with severely limited internet infrastructure. Starlink primarily aims to serve people in these areas and in remote or rural locations where internet connectivity poses a challenge (about 3.4 billion people, approximately 43% of the global population, live in rural locations).

Starlink’s offering extends to government and emergency services. In natural disasters or situations where internet services are disrupted, Starlink can provide resilient connectivity. This was highlighted during the Ukraine-Russia crisis, in which Starlink ensured reliable internet connectivity and helped Ukraine withstand attacks on its electrical and communication infrastructure. SpaceX secured a contract with the US Department of Defense in June 2023 to provide Starlink internet for Ukraine's military.

The travel industry, including cruise ships, airplanes, and boats, is a growing sector within Starlink's customer base. Starlink's ability to provide internet connectivity virtually anywhere on Earth has made it an attractive solution for industries and customers that require mobility and remote connectivity. Hawaiian Airlines, Royal Caribbean, and Carnival Corporation are among its customers.

Market Size

The space flight and transport industry is rapidly growing. In January 2024, the space was valued at $630 billion, up from $280 billion in 2010. By 2030, the space industry is projected to grow to a $1.8 trillion market size.

Source: McKinsey

Launch and Payload Delivery

SpaceX's initial focus was on serving the launch industry, and it had captured 65% of the global satellite launch market by 2018. The satellite launch vehicle market size alone was valued at $14.4 billion in 2022, and is expected to grow at a CAGR of more than 12.5% over the decade until 2032.

Source: Arstechnica

In the 2000s, NASA switched from custom-designed, specialized hardware and software to a fixed-price contracting program called COTS (Commercial Orbital Transportation System), which incentivizes lower-cost structures and innovations. NASA estimated it would cost roughly $1.4 billion to develop the Falcon 9 under its typical cost-plus contract. By contrast, SpaceX’s development costs for Falcon 9 were $443 million.

Internet

In 2019, SpaceX began operating in the satellite internet market with the launch of its Starlink satellites. Starlink serves private sector and military customers in remote locations looking for reliable internet access.

The global market for internet service providers was estimated to be valued at around $419.4 billion in 2022, and was expected to grow at a 9.7% compound annual growth rate until 2030. However, Starlink will likely remain slower than other internet options, such as fiber. Starlink’s market will be constrained to more remote areas without fiber connections.

Starlink’s subscriber base stood at roughly 400K as of May 2022 and surpassed the milestone of 1 million subscribers in February 2023. By March 2026, Starlink reached 10 million subscribers and drove up to 50% to 80% of over 15 billion in revenue for SpaceX in 2025.

Space Tourism

SpaceX also operates in the space tourism market. As of March 2026, this sector’s customer base will likely be limited to high-net-worth individuals in the near term, such as those who completed a trip to the ISS in April 2022. The space tourism market size was estimated at $869.2 million in 2022 and is projected to grow at a 16.2% CAGR for the coming decade to reach $3.9 billion by 2032.

Satellite Service Markets

In addition to launch services, satellite internet, and space tourism, SpaceX could expand into several adjacent markets as the space economy grows. Opportunities include the geospatial analytics market, where satellite imagery and environmental data are used for industries such as agriculture and signals intelligence. SpaceX could also enter the in-orbit servicing market, focused on repairing, refueling, or removing satellites as orbital infrastructure expands. Finally, the company could expand further into commercial positioning, navigation, and timing (PNT) services, supporting military and civilian logistics and autonomous systems. Longer-term opportunities include space-based manufacturing and lunar infrastructure, which could emerge as deep-space missions and orbital production scale in the coming decades.

xAI Markets

SpaceX’s acquisition of foundation AI model company xAI broadens the opportunities of both SpaceX and xAI teams in the world of LLM applications and data centers. Specifically, Musk has said that he plans to use the collaboration between teams from each organization to build out orbital data centers, which will theoretically service the rapidly growing AI data center market. This market is projected to grow to over $2 trillion by 2032.

xAI also includes the Grok LLM and X social media platforms. The LLM market, which was estimated to grow from $6.4 billion in 2024 to $36.1 billion by 2030, includes chatbot applications as well as vertical-AI applications built on underlying foundation models like Grok. The social media market was estimated at $208 billion in 2025, and is expected to double in size by 2030.

Blue Origin: Founded in 2000 by Jeff Bezos, Blue Origin is a major US competitor to SpaceX in heavy launch, national security launch, and lunar infrastructure. Its New Glenn heavy lift rocket completed its first orbital launch in January 2025, marking Blue Origin’s entry into the orbital launch market after years of delays. A second launch in November 2025 successfully delivered NASA’s ESCAPADE Mars science spacecraft and achieved Blue Origin’s first booster landing. In April 2025, the US Space Force awarded Phase 3 Lane 2 national security launch contracts worth $13.5 billion in total to SpaceX, United Launch Alliance, and Blue Origin. SpaceX received 28 missions worth $5.9 billion, ULA received 19 missions worth $5.3 billion, and Blue Origin received seven missions worth about $2.3 billion.

Blue Origin is also competing directly with SpaceX in NASA’s lunar architecture. In 2023, NASA awarded Blue Origin a $3.4 billion contract to develop the Blue Moon Mark 2 crewed lunar lander under the Artemis Human Landing System program. The company is also developing the Blue Moon Mark 1 cargo lander under NASA’s Commercial Lunar Payload Services program, with a mission expected in 2026. In September 2025, NASA selected Blue Origin to deliver the VIPER lunar rover on a future Mark 1 mission. Operationally, the company continues to face scaling challenges. In February 2025, Blue Origin laid off about 10 percent of its workforce as leadership moved to reduce bureaucracy and accelerate launch cadence.

United Launch Alliance (ULA): Before SpaceX’s first successful launches, Boeing and Lockheed Martin held a duopoly on US launches through their joint venture, ULA, which was founded in 2006. ULA provides launch services on its expendable Delta IV Heavy and Atlas V systems for customers like NASA and the Department of Defense. The company has successfully delivered non-reusable rockets for more than 155 missions, including a June 2024 mission when ULA’s Atlas V rocket launched NASA crews to the ISS with Boeing’s Starliner capsule.

However, in 2016, one ULA executive openly acknowledged that the company’s expendable and cost-inefficient rockets can’t compete with SpaceX on costs. While the Atlas V rocket can carry up to 18K kilograms to LEO at $109 million per launch (roughly $6.1K per kilogram), SpaceX’s reusable Starship is predicted to cost just $200 per kilogram. This has motivated ULA to replace its older rockets with the Vulcan Centaur, which can carry a payload of 10K kilograms to LEO. The Vulcan Centaur had its maiden flight in January 2024 following a test failure in March 2023. As of February 2026, the rocket has been launched three times successfully. The Vulcan Centaur is only partially reusable, which makes it challenging for ULA to challenge SpaceX’s launch dominance.

ULA’s current commercial activity is heavily tied to Amazon Leo’s (formerly Project Kuiper) satellite constellation. The company has sold more than 70 Vulcan launches, including 38 dedicated to Leo. In 2025, ULA launched Amazon’s first two operational Kuiper missions on Atlas V and by September 2025 reported launching 81 Kuiper satellites with 43 additional Kuiper missions manifested. Despite these contracts, ULA’s launch model remains based on largely expendable rockets and a relatively low launch cadence, which limits its ability to compete with SpaceX on launch cost or frequency.

Relativity Space: Founded in 2015, Relativity Space is a California-based company that builds reusable, 3D-printed rockets. In April 2023, following a failed launch of its expendable two-stage rocket, the Terran 1, Relativity Space decided to retire its Terran 1 small launch vehicle in favor of its larger and partially reusable Terran R rocket (which is 3D-printed). The upgraded Terran R is expected to launch in 2026 with the capability to launch over 33K kilograms to LEO.

In March 2025, former Google CEO Eric Schmidt acquired a controlling stake in Relativity Space and became chief executive officer, replacing co-founder Tim Ellis. Reports indicated that Schmidt provided roughly $800 million in new capital to support further development of Terran R. The company has continued to report technical progress, including structural hardware, tanks, and engine development, but as of March 2026 has not yet conducted an orbital launch since the single Terran 1 test flight in 2023. Previously, Relativity Space raised $1.3 billion in total funding from outside investors, including Mark Cuban, Tiger Global, Lux Capital, Fidelity, and Y Combinator. It raised a $650 million Series E in June 2021, bringing its valuation to $4.2 billion.

Rocket Lab: Rocket Lab (NASDAQ: RKLB) was founded in 2006 and went public via SPAC in August 2021. As of March 2026, Rocket Lab has a market cap of $40 billion. The company operates the Electron small launch vehicle and has established itself as the most active dedicated small satellite launch provider outside SpaceX. Electron completed 21 launches in 2025 with a 100 percent mission success rate for the year. As of March 2026, Rocket Lab has conducted 83 total launches.

The company is developing Neutron, a reusable medium lift rocket designed to compete with Falcon 9-class missions. Neutron is designed to deliver roughly 13,000 kilograms to orbit and is being developed for government and commercial missions. In March 2025, Rocket Lab secured US Air Force Rocket Cargo testing missions, gained entry into NASA’s VADR launch program, and was added to the US Space Force’s $5.6 billion National Security Space Launch program. The company has completed major hardware tests and opened a launch site in Virginia, though Neutron’s projected first flight has slipped to late 2026 and has not occurred as of March 2026.

Boeing: Boeing (NYSE: BA), founded in 1916, has expanded beyond its traditional commercial airplane manufacturing to include space exploration services. Boeing's Starliner capsule competes with SpaceX’s Crew Dragon for NASA's Commercial Crew program contracts. While Boeing and SpaceX were initially awarded $4.2 billion and $2.6 billion, respectively, to develop their crew transportation systems under NASA’s Commercial Crew Program, SpaceX has since been contracted for at least 14 operational ISS crew rotation missions, including later contingency missions purchased by NASA, while Boeing’s Starliner contract was reduced to four operational missions after repeated program setbacks.

In June 2024, Boeing launched its first partially successful crewed mission of Starliner to the ISS, which marked Boeing’s final test required by NASA before certification for routine astronaut flights to and from the ISS. The mission, originally planned for eight days, was extended as Boeing’s Starliner capsule suffered multiple malfunctions. In August 2024, NASA announced that the two astronauts stranded on the ISS for over two months would have to return on SpaceX’s Crew Dragon if Boeing was unable to fix its Starliner capsule. The two astronauts who launched aboard Starliner remained on the ISS until March 2025, when they returned to Earth aboard a SpaceX Crew Dragon capsule.

Following a “damning assessment” of Boeing’s poor quality control by NASA’s Office of Inspector General, Boeing’s failed Starliner mission severely damaged the company’s space efforts. Subsequent program changes have reduced Boeing’s role in NASA crew transport. In November 2025, NASA and Boeing modified their Commercial Crew contract, reducing the number of post-certification Starliner missions from six to four and making the final two optional. As of March 2026, NASA plans the next Starliner flight for no earlier than April 2026 as an uncrewed cargo mission intended to validate system fixes.

Starlink Competitors

Amazon: Initiated in 2018, Amazon’s Project Kuiper is planning to deploy a constellation of 3.2K satellites in low Earth orbit to increase global broadband access. The Federal Communications Commission (FCC) granted Amazon the license to operate these satellites in July 2020. As of June 2024, more than 2K people are involved in developing Project Kuiper. Amazon has arranged for 77 heavy lift launches through commercial providers, with potential additional options with Blue Origin, to send these satellites into space. The first two prototype satellites (KuiperSat-1 and KuiperSat-2) were launched in October 2023 and achieved a 100% success rate across key mission objectives.

Amazon began full-scale deployment in April 2025 when the first batch of 27 operational satellites launched aboard a United Launch Alliance Atlas V rocket. Multiple launches followed in 2025 on Atlas V and SpaceX Falcon 9, bringing the constellation to over 100 satellites in orbit by the end of the year. Deployment accelerated in 2026 with additional launches, including an Ariane 6 mission that increased the constellation to more than 200 satellites. Amazon has contracted more than 80 heavy lift launches across ULA, Arianespace, Blue Origin, and SpaceX to deploy the network.

OneWeb: Founded in 2012 by Greg Wyler, OneWeb, formerly WorldVu Satellites Ltd, aims to build broadband satellite internet services through a constellation of satellites in low Earth orbit, similar to Starlink’s ambitions. OneWeb differentiates itself by primarily targeting businesses, governments, and airlines, partnering with local ISPs and mobile network operators to reach consumers. After filing for bankruptcy in 2020, the company was rescued by a consortium led by the UK government and India’s Bharti Global, which together invested about $1 billion to restart the constellation deployment. OneWeb completed its first-generation constellation in 2023 with more than 600 satellites in orbit as of March 2026, enabling near-global coverage across most populated regions.

The company subsequently merged with the French satellite operator Eutelsat in 2023 to create Eutelsat Group, combining OneWeb’s low Earth orbit constellation with Eutelsat’s existing geostationary satellite fleet. The combined company is pursuing a hybrid GEO and LEO broadband strategy targeting government, mobility, and enterprise customers rather than competing directly for consumer satellite broadband. While the network is operational, its smaller constellation and enterprise-focused distribution model limit its ability to compete directly with Starlink’s scale and global consumer reach.

Astra: Astra (formerly NASDAQ: ASTR) is a low-cost launch service company founded in 2016. It provides orbital launches for small satellites on its Rocket 4.0 rocket, which costs roughly $4 million to launch, with a total payload capacity of 600 kilograms. Astra also builds electric propulsion systems for in-space navigation for satellites. In 2021, Astra went public through a SPAC deal at a $2.1 billion valuation. Astra stopped trading on the NASDAQ in July 2024 as part of a take-private deal by the co-founders to avoid bankruptcy, which valued the company at around $12 million.

xAI Competitors

xAI competitors include other frontier LLM labs like OpenAI and Anthropic, as well as hyperscalers like Google and Meta. The development of orbital data centers designed and launched by the subsidiary and SpaceX creates the possibility of competition with terrestrial data center developers, including hyperscalers like Microsoft, Amazon, and Google, as well as operators like CoreWeave and Oracle.

SpaceX has several different revenue streams, including satellite launch contracts and other payload contracts with NASA, Starlink subscriptions, and space tourism. Launches provide long-term revenue streams from organizations such as NASA. For example, in April 2021, NASA awarded SpaceX a $2.9 billion contract to transport astronauts to the moon in 2024. Winning large, long-term contracts allows SpaceX to dedicate resources to executing its vision of multi-planetary life.

Starlink also generates revenue through individual subscriptions to the Starlink internet service. This is a capital-intensive business on the front end, as SpaceX has had to launch thousands of satellites into orbit. However, the company plans for the constellation to reach a saturation point where Starlink becomes self-sustaining and can earn subscription revenue without launching new satellites. Several components of SpaceX’s business model have contributed to its ability to scale, such as reusability, cost-efficient reliability, and vertical integration.

Reusability

Source: Visual Capitalist

SpaceX builds its rockets with reusability in mind. While early estimates placed the marginal cost of a newly built Falcon 9 launch at around $50 million, more recent industry estimates suggest that the current marginal cost of a reused Falcon 9 launch is roughly $10-15 million, reflecting improvements in refurbishment processes and hardware longevity. Musk claimed in May 2020 that the marginal cost to launch a reused Falcon 9 was $15 million. The Falcon 9 is credited with a large reduction in launch costs, as it can provide a payload cost per kilogram of roughly $2.7K; by comparison, the Space Shuttle program cost almost $55K per kilogram.

SpaceX’s early reliability and reusability strategy contributed to its cost efficiency. Musk made a comparison between a Honda and a Ferrari to illustrate that a cheaper rocket does not necessarily need to be less reliable:

Vertical Integration

SpaceX has continued to pursue vertical integration to bring costs down through economies of scale. The status quo for launch companies such as ULA has been to source components from disaggregated supplier networks, limiting their ability to reach economies of scale. SpaceX’s vertical integration, however, allows it to eliminate transaction costs with suppliers while spreading its fixed costs over a more extensive production base. SpaceX completes 80% of manufacturing production in-house.

Starlink Subscriptions

Starlink’s business model includes a subscription-based internet service and hardware sales. For residential customers, Starlink offers a standard plan that provides unlimited data designed for fixed, land-based locations like homes. As of March 2026, the plan costs between $50 and $120 per month. In 2024, SpaceX introduced the Starlink Mini terminal, a smaller portable dish with an integrated Wi-Fi router designed for travel, field work, and emergency connectivity. Starlink has also released a direct-to-cell service that connects satellites directly to standard smartphones in partnership with T-Mobile.

For higher-demand users, such as businesses, governments, and institutions, service ranges between $65 and $2,150 per month, depending on bandwidth and coverage, with a $2.5K one-time hardware cost. Priority data users experience faster and more consistent download and upload speeds, especially during peak times. Additional Priority data can be purchased per GB, or the service plan can be upgraded. Since October 2022, Starlink has also offered aviation internet ranging from $12.5K to $25K a month with a one-time hardware cost of $150K.

Grok Subscriptions

xAI also offers premium subscriptions to social media platform X and LLM Grok. As of March 2026, X Premium costs $8 per month, and X Premium+ costs $40 per month, each offering users a suite of customization and audience engagement features. Grok prices for individuals range from $30 per month for SuperGrok to $300 per month for SuperGrok Heavy.

Launch Traction

SpaceX saw significant traction in its Falcon launch products starting in the early 2010s, going from only two launches in 2012 to 96 launches in 2023. In 2024, SpaceX launched a total of 138 rockets, including 132 Falcon 9 launches, two Falcon Heavy launches, and four Starship launches. In 2025, SpaceX completed 165 Falcon launches and by March 2026, had completed its 30th mission of the year.

SpaceX launches were estimated to make up 65% of the global satellite launch market in 2018. Given estimates that SpaceX’s revenue per Falcon 9 launch is $60 million (or $50 million for a reused booster), the company may have grown from around $120 million in revenue in 2012 to over $5.8 billion in 2023. As demand increases, SpaceX seeks to launch up to 120 times a year. The company has subsequently started building new launch sites in Florida and Texas.

The relationship between SpaceX, NASA, and the US military has improved over dozens of launches. In an industry where human lives are on the line, trust and reliability are critical factors in deciding who receives a contract. SpaceX has also continued to attract high-quality talent as the most ambitious platform for engineers, rocket scientists, and physicists. In 2021, the company was named the most desirable company for engineering students to work at.

In October 2024, SpaceX’s Super Heavy booster achieved a milestone in reusable rocket technology during its fifth test flight. In an unprecedented and historic feat, the 233-foot booster separated from the Starship rocket and returned to the launch site, where it was captured midair by Mechazilla. This maneuver demonstrated progress toward SpaceX's goal of creating a fully reusable rocket system for Starship, which is intended to be an interplanetary transportation system.

The Super Heavy booster’s successful return marks a critical advancement in SpaceX's quest to advance space travel. This breakthrough not only paves the way for more cost-effective launches but also showcases the viability of SpaceX’s reusability model. Proving the booster can be retrieved and reused was the next step in potentially bringing launch costs down to around $10 million per launch. Lowering costs is critical to Musk’s long-term vision of making human settlement on Mars feasible. As he put it:

In April 2025, SpaceX won the largest share of the US Space Force’s new $13.5 billion launch procurement, receiving 28 of 54 missions and $5.9 billion in awards. SpaceX is also scaling the infrastructure required to support this projected launch schedule. In May 2025, the FAA approved SpaceX’s request to increase Starship launches from Texas from 5 to 25 per year.

Starlink Traction

Since Starlink released its beta service to the public in 2020, it has garnered over 10 million subscribers across 160 countries. Since its debut, Starlink has experienced rapid growth in members, rising from an initial base of 10K subscribers in 2021 to 145K at the start of 2022 to 1 million in December 2022 to 3 million by June 2024, and more than 10 million by February 2026. To provide global internet coverage, Starlink has deployed nearly 9.9K satellites into orbit, covering more than 160 countries worldwide. In March 2023, it was reported that over half of all active satellites in orbit belong to Starlink’s constellation. In November 2023, Musk announced that Starlink had achieved breakeven cash flow. Musk had previously indicated that the company would consider an IPO for Starlink once its cash flow became more predictable. In March 2026, SpaceX was reportedly considering a $1.5 trillion IPO on the strength of Starlink revenues (reported at $15-16 billion) and acquisition of xAI (and X).

SpaceX raised a $1.7 billion funding round at a $127 billion valuation in May 2022 and achieved a nearly $150 billion valuation in July 2023 following a share sale by existing investors. In July 2025, a secondary sale valued the company at $400 billion. Its total funding across grants, secondary sales, and private equity financing is $11.8 billion as of March 2026.

In 2021, SpaceX’s revenue of $1.6 billion implied a revenue multiple of ~80x at its May 2022 valuation of $127 billion. One unverified source estimated that SpaceX generated $8.7 billion in revenue in 2023, an 89% growth from its 2022 revenue. Based on SpaceX's June 2024 valuation of $200 billion, the company's revenue multiple decreased to approximately 23x.

A meaningful portion of SpaceX’s valuation likely comes as a result of assumptions about Starlink and its potential orbital data centers. Starlink has low variable costs and enormous revenue potential. With Starlink’s 10 million subscribers, Starlink’s plan priced at $120/month implies revenue of over $12 billion. If enterprise services, aviation, maritime connectivity, and direct-to-cell partnerships continue expanding, total Starlink revenue could be $15-20 billion annually.

Starlink as a Global Connectivity Platform

Starlink’s opportunity is broader than just rural fixed broadband. SpaceX’s ambitions include turning the Starlink constellation into a multi-product connectivity platform that can serve every type of user, ranging from direct-to-device to residential to enterprise to governments. In particular, Starlink has become critical to Pentagon operations in remote and austere environments, and SpaceX is reportedly exploring consumer hardware (smartphones) tied directly to the constellation network. Every additional new service (broadband, aviation, government, D2C, etc) layered onto the same orbital infrastructure makes the network that much more valuable to all users.

Intelligence, Surveillance, and Reconnaissance

One of SpaceX’s clearest opportunities is becoming critical infrastructure for protected communications and intelligence, surveillance, and reconnaissance. Through Starshield, SpaceX is explicitly positioning the Starlink business around Earth observation, communications, and hosted payloads for military use.

As of March 2026, the geopolitical backdrop makes this opportunity increasingly significant. Reports have shown that electronic interference with GPS surged around the Strait of Hormuz and the wider Gulf during the 2025 Israel-Iran conflict, disrupting commercial navigation systems. Simultaneously, Ukraine has shown how valuable satellite communications can be in wartime. Ukrainian forces have relied on thousands of Starlink terminals for battlefield communications and some drone operations, depending on rapid deployment to maintain logistical control. These geopolitical conflicts suggest that governments increasingly need redundant space-based communications that can keep functioning when terrestrial infrastructure is damaged or electronically contested.

The Muskonomy: Physical AI and Robotics

As the space economy matures, one of SpaceX’s most compelling opportunities is becoming part of a broader physical AI ecosystem spanning Tesla, xAI, and other Musk-founded companies. SpaceX would provide the transportation and orbital infrastructure layer, xAI could provide the intelligence layer, and Tesla would contribute manufacturing, power systems, and robotics.

Rather than treating rockets, satellites, humanoid robots, autonomous vehicles, and AI models as separate businesses, the “Muskonomy” vision suggests they could increasingly reinforce one another as parts of a single vertically integrated industrial stack. Musk has already taken steps to accomplish this through multiple mergers between companies he has founded. Previous mergers have included xAI's acquisition of X in March 2025 and SpaceX’s subsequent acquisition of xAI in February 2026. Musk is reportedly considering an additional acquisition of SpaceX by Tesla, likely after SpaceX’s impending IPO.

Though these markets are wildly disparate in 2026, many of the next major categories in space, such as in-orbit servicing, robotic logistics, and extraterrestrial construction, are fundamentally robotics problems. These markets require machines that can perceive unstructured environments, make decisions with limited latency, and operate with minimal human intervention. If xAI’s models evolve into stronger decision-making systems for physical environments, and if Tesla continues advancing humanoid robotics, SpaceX could be a natural deployment platform for those capabilities in orbit and beyond. Over time, that could enable SpaceX not only to launch assets into space, but also to operate increasingly intelligent robotic systems once they arrive there.

Even if SpaceX is not the first company to commercialize every individual robotics application directly, it remains well-positioned to capture disproportionate value because nearly all of these use cases still depend on frequent, low-cost transport to and from orbit. SpaceX could therefore own the launch layer, the return layer, and parts of the robotic operations layer for a broader in-space industrial economy. The more the industry shifts toward autonomous spacecraft operations and machine-led orbital infrastructure, the more valuable a tightly integrated stack of AI, robotics, energy, manufacturing, and launch could become.

Manufacturing in Space

Manufacturing in space remains a nascent market, but it is a promising long-term demand driver for orbital infrastructure. A growing set of startups and incumbents is exploring whether microgravity can enable the production of higher-value goods, including pharmaceuticals, advanced materials, and semiconductors that are difficult or uneconomic to produce on Earth. Companies like Varda (biotech), Space Forge (semiconductors), and Axiom Space (advanced materials) are early examples of organizations seeking to move product manufacturing to space.

For SpaceX, the opportunity is not necessarily to manufacture those products itself, but to become the core logistics and infrastructure provider for the category. Any commercially viable in-space manufacturing market would require repeated launches, orbital transport, on-orbit operations, and reliable return capacity back to Earth. Given that SpaceX is already well-positioned across each of those layers through Starship, if manufacturing in space reaches commercial scale, the demand for high repeatability, lower-cost transportation will scale commensurately for SpaceX.

Space Debris

Space debris, comprising defunct satellites, spent rocket stages, and fragments from collisions, poses a significant and growing threat to SpaceX's operations. As of March 2026, space-surveillance networks track about 45K objects in Earth orbit, including roughly 54K debris pieces larger than 10 cm. Models suggest there are also around 1.2 million fragments between 1–10 cm and more than 140 million smaller pieces. This debris field creates a hazardous environment for SpaceX's satellites and spacecraft, as collisions with debris the size of a paint chip can cause catastrophic damage. There are already several notable examples of space debris destroying functional satellites, which creates even more space debris – often thousands of new pieces.

If space debris continues to increase, a theoretical “Kessler Syndrome” is likely to occur. This is a scenario where the density of objects in LEO becomes high enough to cause a cascading effect of collisions, rendering entire orbital regions around Earth unusable, or, in the best-case scenario, more expensive to navigate through. Moreover, the increasing debris field complicates launch windows and trajectory planning for SpaceX's rockets, which could lead to more frequent launch delays.

Environmental Concerns

In July 2024, SpaceX has been seeking approval for up to 120 launches a year in Florida. This substantial increase in launch frequency has raised concerns among nearby residents and competing companies about long-term effects on the region's ecosystem and local industries.

Environmental groups have expressed worries about launch pad cooling water's potential impacts on nearby ecosystems, affecting shorebird and turtle populations. Noise pollution from increased launches is another concern among residents. Additionally, commercial fishing operations may be affected by frequent closures of ocean areas during launches and booster re-entries. At the same time, the air travel industry would need to reroute flights around the launch zone, leading to increased fuel consumption and emissions.

These environmental concerns have led to several regulatory and legal challenges for SpaceX, including lawsuits against the FAA regarding environmental reviews of Starship launches. Other launch companies at Cape Canaveral have also challenged SpaceX’s Starship launch license in Florida over environmental and safety concerns. Blue Origin has submitted a three-page letter to the FAA to cap SpaceX’s annual launches, while ULA submitted a 22-page document accusing SpaceX of fabricating environmental impact statements.

Geopolitical Competition

The geopolitical implications of Starlink, which can extend internet access across large parts of the globe, could put SpaceX in risky situations where it runs across the competing interests of various state actors. Heightened tensions could escalate dramatically over time for SpaceX, especially given SpaceX's use of Starlink to support Ukraine during its conflict with Russia. In August 2023, it was reported that Starlink restricted the Ukrainian military's access with ramifications for its military operations. In the same month, a group of hackers, ostensibly from the Sudan, attacked Starlink, causing it to go offline in "more than a dozen countries" as part of a bid to pressure SpaceX to extend Starlink service to the Sudan.

On SpaceX’s launch provision and space side, tensions between the US, China, and Russia create additional risks. Since the early days of space exploration, geopolitical competition has been a large impetus (initially between the US and the Soviet Union. This continues to be a factor in humanity's space effort in the post-Cold War period. For example, in late 2021, Russia destroyed its own defunct satellite with a missile to prove its anti-satellite capabilities.

Meanwhile, China's development of its own satellite internet networks poses a significant state actor risk to SpaceX. As of March 2026, China has launched 72 satellites of its "Thousand Sails" constellation into orbit, with plans for 15K satellites in total. This network, along with another planned Chinese constellation called Guowang (”national network”), aims to rival Starlink's capabilities.

China's efforts could lead to increased competition in the global satellite internet market, limiting Starlink's expansion in the Asia market and possibly elsewhere. Furthermore, China may leverage these networks as diplomatic tools in developing countries, potentially out-competing Western providers in areas where China has already established infrastructure partnerships. This geopolitical maneuvering could restrict SpaceX's market access for its Starlink subsidiary.

SpaceX, founded by Elon Musk in 2002, aims to transform humanity into a multi-planetary species. The company focuses on two core areas: cost-effective launches and revenue-generating satellite systems. SpaceX's launch efficiency stems from vertical integration and rocket reusability. Its current product line includes the Falcon 9 and Falcon Heavy rockets, Dragon spacecraft, and the still-developing Starship system, all of which have significantly reduced launch costs while increasing payload capacity.

Under NASA's Artemis program, SpaceX's Starship Human Landing System is slated to play a key role in returning astronauts to the moon. Artemis III, targeted for mid-2027, will conduct rendezvous and docking tests in low Earth orbit with the Starship HLS and Blue Origin's Blue Moon lander. Simultaneously, SpaceX's Starlink subsidiary has grown dramatically, reaching over 10 million subscribers and providing coverage across around 150 countries and territories, as of February 2026. The company acquired AI and social media company xAI in February 2026, and plans to expand its offerings to orbital data centers in coming years. The future of the company, which has announced plans to IPO in 2026, hinges on maintaining cost efficiency, attracting top talent, and multi-channel profitability.