Every cubic centimeter inside a satellite bus is a negotiation. The battery pack, a dense brick of cells, takes up space that could otherwise hold a sensor, a thruster, or a communications array. It is a fundamental design constraint that aerospace engineers like Shryas Bhurat have wrestled with firsthand. His startup, Atom Space, is proposing a different architecture: make the structure itself the battery.
Founded in 2024 and based in Berkeley, Atom Space is in stealth mode, actively raising capital and developing what it calls "energy dense structures" and modular, structural battery packs for satellite buses [TechCrunch, January 2025]. The core idea is to integrate energy storage into load-bearing components, turning passive mass into an active power source. The company's website also mentions an AI-powered battery-management platform designed for extreme space environments [atom-space.online]. For an industry where mass efficiency directly translates to mission capability and launch cost, the potential payoff is significant.
The structural wedge
The technical premise is not science fiction. Research into integrated power systems, including structural batteries and photo-rechargeable architectures, is a recognized path for achieving mass efficiency in space applications [Advanced Functional Materials, 2026]. NASA's small satellite technology state-of-the-art report notes high interest in advanced materials like graphene for batteries and supercapacitors in space, and examines conductive polymers for their structural flexibility [NASA]. Atom Space's bet is to productize this research into a flight-ready, modular component. The goal is to address the space and payload penalty of conventional standalone packs, effectively increasing the usable volume for a satellite's primary mission [TechCrunch, January 2025].
Founder-led deep tech
The venture is currently a solo endeavor led by Bhurat, an aerospace engineer with a background that bridges hands-on satellite work and venture. He has worked on building satellites and at the UC Berkeley Space Sciences Laboratory on NASA-granted missions for next-generation space infrastructure [UC Berkeley Sutardja Center] [LinkedIn, 2026]. He has also been involved in venture, leading the expansion of The MBA Fund to Berkeley and helping close four deep technology deals [LinkedIn, 2026]. This mix suggests a founder who understands both the technical rigor required for space-grade hardware and the capital intensity of bringing it to market. His academic work includes a co-authored paper on a deployable baffle system for CubeSats, accepted at the 2026 IEEE Aerospace Conference, indicating a focus on practical spacecraft subsystems [shryasbhurat.com, 2026].
The path to orbit
The commercial trajectory for a hardware startup like Atom Space is steep. No customers, partnerships, or funding rounds are yet public, which is typical for a company at this stage. The likely path involves securing non-dilutive grants or venture capital to fund prototyping, followed by rigorous qualification testing to meet the reliability standards of the aerospace industry. The first customers would logically be satellite manufacturers, spacecraft integrators, and operators willing to beta-test a new core subsystem. Success would be measured not just by energy density, but by achieving a compelling total system mass reduction without compromising structural integrity or safety.
Technical breakdown and scale risks
From an engineering standpoint, the challenges are multidimensional. A structural battery must maintain its mechanical load-bearing capabilities across the violent vibrations of launch and the extreme thermal cycles of orbit, all while delivering stable power. Cycle life and degradation under radiation are critical unknowns. The AI management platform would need to handle cell balancing and health monitoring in a fully integrated system where individual cells cannot be easily swapped.
The sober assessment is that the failure modes at scale are severe. Any compromise in structural integrity could lead to a catastrophic mission failure. Thermal management becomes more complex when heat-generating cells are embedded deep within a structure. Furthermore, the business model depends on convincing conservative aerospace procurement teams to adopt a novel, unproven component for a mission-critical system. The value proposition must overwhelmingly clear the hurdle of perceived risk.
If Atom Space can navigate these hurdles, it would not merely be selling a better battery. It would be selling a fundamental redesign of the satellite bus itself, turning a historical constraint into a new design variable. For an industry pushing toward smaller, cheaper, and more capable spacecraft, that is a bet worth watching.
Sources
- [TechCrunch, January 2025] Atom Space Startup Battlefield Profile | https://techcrunch.com/startup-battlefield/company/atom-space/
- [atom-space.online] Atom Space Website | https://www.atom-space.online/
- [Advanced Functional Materials, 2026] Challenges and Advances of Photovoltaic Power and Rechargeable Battery Systems for Space Applications | https://advanced.onlinelibrary.wiley.com/doi/10.1002/adfm.202525129
- [NASA] 3.0 Power - Small Satellite Technology State of the Art | https://www.nasa.gov/smallsat-institute/sst-soa/power-subsystems/
- [UC Berkeley Sutardja Center] How to Be a Futurist: Students Deploy AI Tools, Produce Podcasts and Write Book in SCET Course | https://scet.berkeley.edu/how-to-be-a-futurist-students-deploy-ai-tools-produce-podcasts-and-write-book-in-scet-course/
- [LinkedIn, 2026] Shryas Bhurat Profile | https://www.linkedin.com/in/shryasbhurat/
- [shryasbhurat.com, 2026] Shryas Bhurat Personal Site | https://www.shryasbhurat.com/