PATENT-PENDING TECHNOLOGY
The Magnetosphere
Radiation is the single hard constraint on permanent human infrastructure in space. Every hour, galactic cosmic rays and solar energetic particles degrade electronics, damage biology, and prevent precision manufacturing in orbit. We solve this at the physics layer.
The Problem
Radiation destroys everything we send to orbit
Ionizing radiation in LEO, GEO, and cislunar space degrades semiconductor junctions, causes single-event upsets in processors, breaks DNA strands in biological tissue, and introduces defects in precision manufacturing processes. Every system sent beyond Earth's magnetosphere faces this constraint.
The current solution is radiation hardening: redesigning every component to tolerate the environment. Rad-hardened computing at scale costs orders of magnitude more than its commercial equivalent. That cost locks out commercial manufacturing, large-scale computing, and long-duration biological research from orbit.
Shielding with mass (water, polyethylene, regolith) adds thousands of kilograms per cubic meter of protected volume. Neither approach scales.
The Solution
An artificial magnetosphere built from superconducting coils
The Bueché-Labs artificial magnetosphere generates a persistent magnetic field envelope around a protected volume in orbit. Eight REBCO (Rare-Earth Barium Copper Oxide) high-temperature superconducting dipole coils create overlapping magnetic field geometries that deflect charged particles away from the interior.
The coils are distributed across a satellite formation flying in a coordinated HTS (High-Temperature Superconducting) configuration. Each satellite maintains its coil orientation and position relative to the formation center, shaping the composite field to create distinct protection zones.
Because the field deflects particles rather than absorbing them, there is no mass penalty that scales with protected volume. A larger bubble requires more current, not more material.
Architecture
Three Protection Zones
Zone A
Clean Core (SSZ)
The Safe Station Zone. GCR and SEP flux reduced to below ISS-interior levels. COTS electronics, unshielded biology, and precision manufacturing operate here without modification.
Zone B
Structured Noise
Partially deflected particle environment with predictable flux gradients. Ideal for sensors, radiometers, and instruments that benefit from controlled exposure. Radiation levels are modeled and mapped in real time.
Zone C
Turbulent Fringe
The outer boundary where the artificial magnetosphere meets ambient space weather. High turbulence, variable shielding. Used for expendable payloads, particle science, and magnetosphere diagnostics.
Economics
The Economic Thesis
Inside the magnetosphere's Clean Core, standard commercial off-the-shelf (COTS) hardware operates without radiation hardening — an order-of-magnitude cost reduction compared to rad-hardened equivalents.
The cost reduction applies to every system inside the bubble: computing, manufacturing equipment, biological research infrastructure, sensors, and crew habitation systems. The magnetosphere is not a product — it is the enabling condition for an entire orbital economy.
Magnetosphere Attitude Control (MAC)
The same magnetic field that deflects radiation interacts with Earth's magnetosphere and the solar wind to generate torque. MAC uses this interaction for propellant-free attitude control and station-keeping. No reaction wheels. No thrusters. No consumables. The field that protects you also steers you.
Intellectual Property
Patent Portfolio
Four provisional patents filed. US Provisional 63/960,261 covers the core artificial magnetosphere innovation. All four provisional patents are owned by Bueché-Labs. Co-inventors: Robert Klotz and Brad Bueché.
Artificial Magnetosphere
The moat. Covers the core innovation: generating a persistent, shaped magnetic field in orbit using distributed superconducting coils to deflect ionizing radiation from a protected volume.
Passive Counter-Rotating Radiometer Torque
Eliminates reaction-wheel dependency for attitude control by using radiometric pressure differentials across counter-rotating elements. Zero-propellant, zero-wear torque generation.
PV Sail and Truss Power
Structural power generation integrated into the truss and sail geometry. Photovoltaic surfaces double as structural and thermal elements, eliminating dedicated solar array mass.
Waste Heat LIDAR Array
Converts waste thermal radiation into a phased LIDAR array for proximity sensing, debris detection, and formation-flight coordination. Turns a thermal liability into a sensing asset.
Validation
University of Houston Partnership
Gate 0 magnet validation is planned with Dr. Jarek Wosik at the University of Houston's Texas Center for Superconductivity — one of the world's leading laboratories for high-temperature superconductivity research.
Want to learn more?
We are building the physical infrastructure layer for permanent human presence in space. If you are working on problems that radiation currently blocks, we should talk.
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