Space & Satellites
Besxar and SpaceX Partner to Manufacture Semiconductors in Orbit
Besxar partners with SpaceX to produce next-generation semiconductors in space, leveraging the ultra-high vacuum environment for superior chip quality.
A New Frontier: Besxar and SpaceX Aim to Take Chip Manufacturing Orbital
In a significant move that bridges the gap between terrestrial industry and the commercial space sector, American Startups Besxar has emerged from stealth with a landmark announcement. The company has signed a multi-launch agreement with SpaceX to pioneer the manufacturing of next-generation semiconductors in orbit. This initiative seeks to address the fundamental physical limitations that are beginning to constrain the advancement of chip technology on Earth, potentially unlocking new capabilities for high-demand fields like artificial intelligence, quantum computing, and national defense.
The core of Besxar’s mission is to leverage the unique environment of space, specifically, its ultra-high vacuum, to produce materials with a purity and quality unattainable within Earth’s atmosphere. Modern semiconductor fabrication is an exacting process, requiring pristine, vacuum-sealed cleanrooms to prevent microscopic contaminants from ruining delicate microchips. However, even the most advanced terrestrial facilities cannot replicate the near-perfect vacuum of space. By moving a critical part of the Manufacturing process off-planet, Besxar aims to overcome these hurdles, potentially revolutionizing the efficiency and performance of the foundational components that power our digital world.
The Partnerships with SpaceX provides the logistical backbone for this ambitious venture. The agreement covers 12 missions, utilizing SpaceX’s proven Falcon 9 rockets to carry Besxar’s autonomous manufacturing pods into space. This collaboration is not just about sending a payload to orbit; it represents a novel business model built on reusability and rapid iteration, signaling a maturing vision for how space can become a practical and integrated extension of our industrial supply chain.
The Limits of Earth and the Promise of Orbit
The relentless demand for more powerful and efficient computing has pushed the semiconductor industry to the brink of its terrestrial capabilities. As technologies like large-scale AI models become more prevalent, the data centers that run them face immense strain. The graphics processing units (GPUs) at the heart of these systems are being pushed to their thermal and performance limits, a challenge Besxar’s founder and CEO, Ashley Pilipiszyn, bluntly described by stating, “the GPUs are melting.” This intense operational demand highlights a critical bottleneck: the materials we currently use are struggling to keep up.
This challenge extends deep into the manufacturing process. Fabricating the ultra-pure crystalline substrates needed for advanced chips requires an environment almost entirely devoid of atoms, an ultra-high vacuum (UHV). On Earth, creating and maintaining such a vacuum is an energy-intensive and imperfect process. The physical walls of a vacuum chamber can themselves release impurities, and achieving the necessary conditions for next-generation materials is becoming prohibitively complex and expensive. Pilipiszyn notes, “We’re reaching the limits of what can be built on Earth. AI data centers are straining against power and cooling limits, silicon is nearing its physical edge, and fabrication plants can’t achieve the vacuum or yields that next-generation materials demand.”
This is where the orbital factory concept comes into play. The vacuum of low Earth orbit is naturally millions of times more empty than the best UHV chambers on the planet. By placing its manufacturing pods in this environment, Besxar can theoretically create semiconductor materials with unparalleled purity. This could lead to significantly higher yields, reducing waste and cost, and enable the development of novel materials that simply cannot be formed on Earth. The company projects this leap in quality could “effectively double the chip cost-efficiency for next-generation AI workloads,” addressing both the performance and economic constraints facing the industry.
By taking the manufacturing process to orbit, Besxar is able to use the ultra-high vacuum of space to manufacture better semiconductor wafers for a fraction of the cost, even when factoring in the costs to get to space and back.
Ashley Pilipiszyn, Founder and CEO of Besxar
The SpaceX Partnership: A New Model for In-Space Manufacturing
The agreement between Besxar and SpaceX introduces an innovative operational model that sets it apart from other in-space manufacturing ventures. Instead of deploying a long-duration satellite or space station module, Besxar will utilize small, autonomous manufacturing pods called “Fabships™.” These microwave-sized “Clipper-class” units are designed for a specific and efficient purpose: to conduct their manufacturing process during the suborbital flight of a SpaceX Falcon 9 booster.
In a novel application of SpaceX’s reusable rocket technology, the Fabships will be integrated directly onto the Falcon 9’s first-stage booster. After the booster completes its primary mission of pushing the second stage toward orbit, it begins its descent back to Earth. During this period, as the booster travels through the upper atmosphere and the vacuum of space, the Fabships will have the ideal conditions to create their ultra-pure materials. Once the booster lands, the pods are retrieved, allowing for quick analysis of the product and refurbishment for the next mission.
This approach is being hailed as the “first-ever reusable payload program to launch on a SpaceX rocket.” The full reusability of both the Falcon 9 booster and the Besxar Fabships creates a virtuous cycle of rapid, cost-effective iteration. With a cadence of 12 missions already planned, Besxar can test, refine, and scale its processes at a pace that would be impossible with traditional space missions. This high frequency of flights transforms the concept of space manufacturing from a distant, monolithic endeavor into a dynamic and agile industrial process.
Forging an Orbital Supply Chain
The Besxar-SpaceX initiative represents more than just a technological experiment; it is a strategic step toward building a resilient and advanced domestic supply chain for a critical industry. By developing this capability, the United States can reduce its reliance on overseas manufacturing and gain a competitive edge in the foundational technologies of the future. The venture has already garnered support from key institutions, including an active contract with the U.S. Department of Defense and early backing from NVIDIA’s Inception Program, which nurtures cutting-edge startups.
Looking ahead, the success of this model could pave the way for a new era of commercial space utilization, where the unique properties of the space environment are harnessed for specialized industrial applications. As Pilipiszyn stated, the goal is to transform “space into a critical extension of America’s semiconductor supply chain.” If proven viable, orbital manufacturing could become an indispensable tool for producing the high-performance components needed for everything from AI and quantum computing to advanced defense and energy systems, securing technological leadership for years to come.
FAQ
Question: What is Besxar?
Answer: Besxar is an American startup founded in 2023 by former OpenAI employee Ashley Pilipiszyn. The company’s mission is to manufacture next-generation semiconductor materials in the ultra-high vacuum of space to overcome the limitations of terrestrial fabrication.
Question: How is Besxar’s approach to in-space manufacturing different?
Answer: Besxar’s model is unique because it uses small, reusable manufacturing pods called “Fabships” that are attached to SpaceX’s Falcon 9 first-stage boosters. The manufacturing process takes place during the booster’s suborbital flight and return journey, allowing for a high cadence of missions and rapid iteration without the need for a long-duration satellite.
Question: What problem does manufacturing semiconductors in space solve?
Answer: It leverages the natural, superior vacuum of space to create materials with a level of purity and perfection that is nearly impossible to achieve in Earth-based cleanrooms. This can lead to higher-quality, better-performing chips with higher manufacturing yields, addressing the intense demands of modern technologies like AI data centers.
Question: When is the first launch scheduled to happen?
Answer: According to the announcement, the first mission is scheduled to occur as soon as late 2025.
Sources
Photo Credit: Besxar
Commercial Space
SpaceX IPO Raises $75 Billion in Historic Nasdaq Debut
SpaceX raised $75 billion in its June 12, 2026 IPO, surpassing Saudi Aramco’s record for the largest public offering in history.
Space Exploration Technologies Corp. (SpaceX) completed the largest initial public offering in history on June 12, 2026, raising $75 billion and achieving a $1.77 trillion valuation at its offering price.
Trading under the ticker symbol SPCX, the launch on the Nasdaq stock exchange marks a financial milestone for the commercial aerospace sector. According to a press release from Nasdaq, the debut included a simultaneous dual listing on Nasdaq Texas to align with the company’s Starbase headquarters and the regional business ecosystem.
Historic market debut and valuation
The offering consisted of 555 million shares priced at $135 each, according to reporting by the Los Angeles Times and Forbes. When trading opened on June 12, 2026, the stock price climbed to $150 per share, as confirmed by Yahoo Finance. Underwriters hold an option to purchase an additional 83 million shares.
The $75 billion raised surpasses the previous global record set by Saudi Aramco in 2019, which raised $29.4 billion. The successful debut propelled CEO Elon Musk’s estimated net worth to $1.1 trillion, according to Forbes.
Early trading valuations varied among financial outlets. Forbes reported a market capitalization of $2.1 trillion during early trading, while the Los Angeles Times estimated the figure at nearly $2 trillion.
Executive remarks and dual listing
Executives from both SpaceX and Nasdaq gathered at the Nasdaq MarketSite in New York and the Starbase facility in Texas to mark the occasion. SpaceX Chief Operating Officer Gwynne Shotwell addressed the company’s approximately 22,000 employees during the event.
“Today, we make history again, and we have a history of making history. We’re about 22,000 strong, and thanks go to all of you for hanging in there, for keeping a straight spine as the doubters doubt, to achieve historic things every day,” Shotwell said.
Nasdaq Chief Executive Officer Adena Friedman congratulated the aerospace manufacturers, stating the exchange was proud to partner with SpaceX as it builds future physical and digital infrastructure.
Musk highlighted the company’s trajectory from a small warehouse in El Segundo, California, to executing the largest public offering on record.
“There are always problems that we want to solve here on Earth, and we are solving them. But there also have to be things that get you excited about the future, that make you glad to wake up in the morning because you can’t wait to see what happens next,” Musk said.
Regulatory timeline and market reception
The path to the public market began on April 1, 2026, when SpaceX confidentially filed a draft S-1 registration statement with the U.S. Securities and Exchange Commission (SEC). The SEC publicly disclosed the filing on May 20, 2026.
On June 3, 2026, the company filed an amendment disclosing the $135 target price. The process faced brief political friction on June 10, 2026, when U.S. Senator Elizabeth Warren sent a letter to the SEC requesting a delay over governance and valuation concerns. The SEC declared the registration effective the following day.
Demand for the stock was exceptionally high. Forbes reported that retail investments exceeding $100 billion, resulting in the offering being oversubscribed nearly four times.
Despite the strong market reception, some financial analysts expressed skepticism. Morningstar published a report valuing the stock at $63 per share, representing a 53 percent discount to the IPO price. The analysts cited the unproven long-term economics of rapidly reusable Starship launch vehicles and space-based data centers.
AirPro News analysis
The transition from a privately held entity to a publicly traded corporation introduces a fundamental shift in how SpaceX will operate. We expect the influx of $75 billion in capital to accelerate the development and testing cadence of the Starship program, which requires immense financial resources to achieve full and rapid reusability. However, public market-analysis demand quarterly financial transparency and consistent returns. This requirement contrasts sharply with the company’s historically secretive operations and its willingness to absorb spectacular hardware losses during iterative testing phases. Balancing the expectations of retail and institutional shareholders with the high-risk realities of aerospace engineering will be the primary challenge for the executive team in the coming years.
Sources: Nasdaq Newsroom
Photo Credit: Nasdaq
Space & Satellites
NASA Names Artemis III Crew for 2027 Earth-Orbit Test Flight
NASA has assigned four prime crew members for Artemis III, a 2027 orbital mission to test commercial lunar lander docking ahead of Artemis IV.
The National Aeronautics and Space Administration (NASA) has named the four prime crew members and one backup for the Artemis III mission, a 2027 Earth-orbit test flight designed to demonstrate rendezvous and docking capabilities with commercial human landing systems.
In a press release issued on June 9, 2026, the agency confirmed the mission will serve as a prerequisite for Artemis IV, which is targeted as the first crewed mission to the lunar South Pole in 2028. The Artemis III profile focuses on orbital operations, testing the SpaceX Starship and Blue Origin Blue Moon landers in low Earth orbit following the successful completion of the Artemis II circumlunar flight in April 2026.
Crew assignments and international partnership
NASA astronaut Randy Bresnik will command the mission, joined by NASA mission specialists Andre Douglas and Frank Rubio. Rubio previously completed a record-breaking 371-day single spaceflight. European Space Agency (ESA) astronaut Luca Parmitano will serve as pilot, marking the first time an ESA astronaut has been assigned to an Artemis flight. NASA astronaut Bob Hines is designated as the backup crew member.
“Artemis III will push the boundaries of spacecraft operations in orbit. Luca’s assignment as pilot reflects the depth of European expertise in human spaceflight and draws on his extensive operational experience in high-pressure situations,” ESA Director General Josef Aschbacher stated.
NASA Administrator Jared Isaacman noted that the mission will test complex rendezvous and docking operations while advancing technologies required for deeper solar system exploration.
Mission profile and hardware integration
The Artemis III flight plan outlines a two-week mission in low Earth orbit. The crew will launch from Kennedy Space Center in Florida aboard the Orion spacecraft, propelled by the Space Launch System (SLS) rocket.
Once in orbit, the Orion spacecraft will conduct separate docking operations with two commercial lander test articles. The crew will spend approximately two days docked with the Blue Origin lander and one day docked with the SpaceX Starship pathfinder. The mission will conclude with a splashdown and U.S. Navy recovery in the Pacific Ocean.
Preparation for the flight is advancing. During the summer of 2026, engineers are scheduled to connect the Orion crew and service modules and integrate the docking system. Simultaneously, SLS rocket stacking and the installation of four RS-25 engines will begin at Kennedy Space Center.
AirPro News analysis
We note that the Artemis III mission profile represents a pragmatic adjustment in the lunar exploration timeline. By converting Artemis III into an Earth-orbit test flight, NASA mitigates the risk associated with deploying untested commercial landing systems directly to the lunar environment. This orbital checkout of the SpaceX and Blue Origin hardware ensures that critical rendezvous and docking procedures are validated before the Artemis IV mission attempts a lunar South Pole landing in 2028. The inclusion of an ESA pilot also solidifies the international framework required for sustained lunar surface operations.
Sources: National Aeronautics and Space Administration (NASA)
Photo Credit: NASA
Space & Satellites
Isar Aerospace Raises EUR 270M to Scale Spectrum Launch Vehicle
Isar Aerospace secured EUR 270M in Series D funding to produce up to 40 Spectrum rockets annually and expand sovereign launch access.
Isar Aerospace secured EUR 270 million in Series D funding on June 9, 2026, to scale production of its Spectrum launch vehicle and address a critical gap in European sovereign space access.
The funding round, backed by new investors Island Green Capital and Molten Ventures alongside the NATO Innovation Fund, arrives as the Munich-based manufacturers prepares for the second flight of its Spectrum rocket. According to a company press release, the capital will support the expansion of global operations and the serial production of up to 40 launch vehicles annually at its Parsdorf facility.
Strategic shift toward defense and sovereign capability
Isar Aerospace reported that its demand profile has shifted significantly over the past 12 months, with 60 percent of its backlog now defense-related. This aligns with broader regional security initiatives. In May 2026, the SPARTA 2.0 report identified sovereign European access to space as a central capability gap.
The company noted that Europe conducted fewer than 10 orbital launches in 2025, compared to more than 190 by the United States. The inclusion of the NATO Innovation Fund in this funding round underscores the strategic importance of independent orbital access for member nations.
Daniel Metzler, Co-Founder and CEO of Isar Aerospace, emphasized the geopolitical stakes in the press release.
Space is no longer a frontier; it is the infrastructure of national power. With this strategic backing, we are expanding access to space for nations worldwide, delivering an orbital launch system at scale for government and commercial customers.
Spectrum launch vehicle development and upcoming flight
The funding announcement precedes the scheduled qualification flight of the Spectrum launch vehicle, designated Mission ‘Onward and Upward’. The launch window is set for June 15 through June 21, 2026, from the company’s launch site in Andøya, Norway. The vehicle, designed to carry up to 1,000 kilograms to low Earth orbit, will carry five CubeSats on this mission.
This upcoming flight represents the second launch attempt for the Spectrum program. The inaugural flight in March 2025 ended in failure less than a minute after liftoff. Subsequent attempts in early 2026 faced delays. A March 25, 2026, attempt was scrubbed due to an unauthorized vessel entering the designated danger zone, and an April 9, 2026, attempt was halted after operators discovered a leak in a composite overwrapped pressure vessel.
Global expansion and infrastructure
Beyond its Norwegian launch site, Isar Aerospace is expanding its operational footprint. The company signed a Letter of Intent with Maritime Launch Services to establish Spaceport Nova Scotia as a second launch site, which will facilitate missions to mid-inclination and high-inclination orbits. The manufacturer also entered a cooperation agreement with TKMS for the Canadian Patrol Submarine Project, integrating sovereign launch capabilities within a NATO bilateral defense procurement framework.
AirPro News analysis
We view Isar Aerospace’s successful EUR 270 million raise as a strong indicator that institutional and defense investors are prioritizing assured access to space over immediate commercial returns. The shift to a 60 percent defense-oriented backlog reflects a broader European realization that reliance on foreign launch providers presents an unacceptable strategic vulnerability. While the Spectrum vehicle’s development has encountered typical aerospace hurdles, including the March 2025 failure and recent scrubs, the backing of the NATO Innovation Fund suggests high confidence in the engineering path forward. The upcoming June 2026 launch window will be a critical technical milestone to validate this substantial financial backing.
Sources: Isar Aerospace, NATO Innovation Fund
Photo Credit: Isar Aerospace
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