Semiconductor Startup Launches Payloads on Falcon 9
- Startup Besxar will leverage SpaceX's Falcon 9 rockets for a unique series of tests aimed at manufacturing semiconductors in the vacuum of space, utilizing payloads attached to returning...
- Besxar, a startup company, is pioneering a novel approach to semiconductor manufacturing by testing its technology in the unique surroundings of space.
- Besxar announced on October 28, 2023, a launch agreement with SpaceX to fly payloads on 12 Falcon 9 missions as reported by Spaceflight Now.
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Besxar to test Space-Based Semiconductor Production on SpaceX Falcon 9 Launches
Startup Besxar will leverage SpaceX’s Falcon 9 rockets for a unique series of tests aimed at manufacturing semiconductors in the vacuum of space, utilizing payloads attached to returning boosters.
Last Updated: October 31, 2025, 23:54:15 PST
What is Besxar and Why Space-Based Semiconductor Production?
Besxar, a startup company, is pioneering a novel approach to semiconductor manufacturing by testing its technology in the unique surroundings of space. traditional semiconductor fabrication requires extremely clean environments, and the vacuum of space offers an inherently pristine setting. This could perhaps lead to higher-quality chips with fewer defects. The company believes this method could revolutionize the semiconductor industry, addressing challenges related to purity and material science.
The Falcon 9 Fabship Program: A Unique Approach
Besxar announced on October 28, 2023, a launch agreement with SpaceX to fly payloads on 12 Falcon 9 missions as reported by Spaceflight Now. Unlike conventional falcon 9 missions where payloads are deployed into orbit, Besxar’s “Fabship” payloads will be attached to the rocket’s boosters and return to Earth with them after less than 10 minutes. This allows for rapid and relatively inexpensive testing of the technology.
Each Fabship payload is approximately the size of a microwave oven and is designed to test systems Besxar is developing for producing semiconductor wafers in the vacuum of space. This approach leverages SpaceX’s proven capabilities in launch and reentry, as highlighted by Ashley Pilipiszyn, besxar’s founder and CEO in an interview with Spaceflight Now.
The initial payloads, dubbed “Clipper-class,” are focused on validating the core systems before scaling up to more complex manufacturing processes.
Technical Details: Clipper-Class Payloads and Future Growth
The Clipper-class Fabships are designed to withstand the extreme conditions of launch and reentry, including meaningful G-forces and aerodynamic heating. Thay will house the necessary equipment to initiate the semiconductor growth process in a vacuum environment. While the initial tests won’t produce fully functional chips,they will gather crucial data on material behavior,process control,and system reliability.
Besxar’s long-term vision involves developing larger, more sophisticated Fabships capable of producing complete semiconductor wafers in space. This could potentially lead to the creation of specialized chips with unique properties not achievable through terrestrial manufacturing. The company is exploring various semiconductor materials and fabrication techniques optimized for the space environment.
Semiconductor manufacturing: A Terrestrial overview
Traditional semiconductor manufacturing is a complex, multi-step process requiring ultra-clean environments. The process typically involves depositing thin films of various materials onto silicon wafers, followed by etching and doping to create intricate circuit patterns. Contamination is a major concern, as even microscopic particles can cause defects and reduce chip yield.The cost of building
