ARX STELLA’s long-term strategy is built around a four-phase roadmap that transforms advanced manufacturing capabilities into a space-ready modular ecosystem. Beginning with the establishment of a precision manufacturing facility in Houston, each phase progressively builds toward enabling permanent human infrastructure in orbit and beyond.
Phase One: Build the Infrastructure
Objective: Establish the foundational manufacturing site in Houston with precision tooling, AI-driven robotics, and support systems tailored for space modular production.
Key Actions:
Finalize property acquisition near Clear Lake, Houston (adjacent to Kinder Morgan)
Oversee facility buildout: 150,000 sq ft for modular production, labs, offices, FSW stations
Contract Hadrian Manufacturing to deliver turnkey automation + FSW line
Hire foundational team (29 roles): engineers, technicians, executive, and support
Purchase and install CNC machining, FSW tooling, Rolling machine,
Develop IT infrastructure: CAD, AI robotics platform, secure cloud networks
Launch regulatory compliance for NRC, ITAR, OSHA, and FAA pathways
Begin prototyping module shells, AI docking ports, and internal configurations
Establish R&D partnerships with local universities (TAMU, Rice, UH)
Initiate branding rollout, community awareness, and STEM engagement locally
Expected Outcome: ARX STELLA will complete and commission its 150,000 sq ft modular manufacturing facility in Houston, fully outfitted with a Hadrian-designed turnkey assembly line, including FSW tooling. A 29-person multidisciplinary team will be operational, delivering the first three prototype modules for Exoplanetary, Orbital, and Nuclear applications. Regulatory frameworks will be established for NRC, ITAR, and OSHA, and key R&D partnerships and supplier contracts will be secured to enable sustained early-stage prototyping.
Phase Two: Master Modularity
Objective: Deliver scalable, plug-and-play module systems for Earth orbit, cislunar space, and planetary surfaces, emphasizing interconnectivity and rapid reconfiguration.
Key Actions:
Complete TRL 6–7 demonstrations for each module class (Exoplanetary, Orbital, Nuclear)
Test CBM+ (Common Berthing Mechanism Plus Size) for robotic and crew docking
Standardize core module frames for reconfigurability and stacking
Develop plug-and-play internal kits
Simulate and field-test modular chaining on lunar analog terrain
Expand facility throughput
Secure DoD + commercial contracts (Axiom, NASA STMD, etc.)
Validate thermal control + radiation shielding via analog tests
Create modular deployment manuals and remote assembly procedures
Expected Outcome: The company will achieve TRL 7 demonstration of modular systems, including successful CBM+ docking and plug-and-play internal system kits. Production throughput will scale to 12-18 modules annually, and technical licensing deals will be established with at least two commercial or government partners. Modular shell standards and servicing manuals will be published, and the company will demonstrate repeatable docking and deployment scenarios for orbital and planetary missions.
Objective: Partner with government and private space operators to deploy sustainable surface and orbital habitats, energy systems, and life support solutions.
Key Actions:
Deliver and validate surface modules for lunar and Martian analog testing
Expand nuclear module capability (TRL 6+), integrate RTG/SMR into habitat mockups
Launch logistics and docking nodes for lunar/Mars orbital use
Partner with NASA, Blue Origin, SpaceX for payload delivery interface
Scale production to 30+ modules/year across 3 classes
Finalize AI-diagnostic systems for autonomous module monitoring
Create first modular field base architecture (surface + orbital hybrids)
Begin closed-loop system integration (ECLSS, energy, comms, robotics)
Strengthen civil partnerships (NASA Gateway, Artemis Basecamp contributors)
Expected Outcome: ARX STELLA will deploy and validate surface module systems in lunar/Martian analog environments and integrate operational nuclear power modules into modular infrastructure. A closed-loop life support ecosystem will be demonstrated, and robotic servicing systems will be tested in orbit. The company will deliver modules for NASA, DoD, or commercial customers—supporting real mission hardware for orbital stations or surface basecamps.
Objective: Expand capabilities to support long-range missions and infrastructure beyond Mars, enabling a sustainable human footprint across the solar system.
Key Actions:
Design modules for interplanetary cruise configurations (radiation, spin gravity compatible)
Deliver Mars-bound cargo/station systems with deep space redundancy
Test cryogenic and long-duration FSW seals, coatings, and shielding
Build modular platforms for Venus/Mars orbit insertion staging
Develop AI-supported outpost management for autonomous upkeep
Partner with ESA, JAXA, private deep space ventures on logistics nodes
Advance reactor designs to support >10-year autonomous energy output
Design bio-containment and isolation-ready habitat extensions
Build first permanent infrastructure demonstration beyond cislunar space
Expected Outcome: The company will finalize long-duration, radiation-hardened interplanetary module designs and validate them through orbital endurance or analog tests. AI-managed outpost systems, deep space reactor systems with >10-year lifespan, and modular transfer platforms will be qualified for Mars-bound or deep space missions. A demonstration of modular infrastructure beyond cislunar orbit will establish ARX STELLA’s capability to support humanity’s permanent expansion into the solar system.
The four-phase process outlined above provides a clear roadmap for Arx Stella to achieve operational excellence on the lunar surface. By emphasizing strategic partnerships, meticulous planning, and cutting-edge technology deployment, Arx Stella will pioneer sustainable energy and resource solutions for the burgeoning lunar economy.