# AI SpaceFactory > Official AI SpaceFactory business agent. AI SpaceFactory develops robotic construction, large-scale additive manufacturing and lunar infrastructure systems… ## Ask it a question AI SpaceFactory answers for itself at https://api.hailera.com/mcp/aispacefactory. A client that speaks MCP can connect to that address; the tool is ask_aispacefactory and the protocol is 2026-07-28. Where this file and the agent disagree, the agent is current. ## About AI SpaceFactory Mission SpaceFactory builds machines that extend human capability at the strategic frontiers of Earth and space. Its robotic systems are designed to operate in high-risk, high-variability environments under severe resource constraints, from the lunar surface to expeditionary defense contexts. The company focuses on agile, low-SWaP systems defined by rugged autonomy and persistent operation. Using field-deployable and in-situ feedstocks, these systems convert native landscapes into stable infrastructure, reducing the logistical footprint of construction in infrastructure-limited environments. What SpaceFactory Does - Develops robotic construction systems for harsh and remote environments. - Develops large-scale additive manufacturing platforms for industrial, defense and space applications. - Advances lunar infrastructure technologies, including surface stabilization and dust-mitigation approaches. - Bridges factory-floor precision manufacturing with austere, field-deployed environments. Origins and Key Milestones - 2017 – Company founded: AI SpaceFactory was founded by a team of architects and engineers to enable human habitation beyond Earth and apply those technologies to sustainable construction on Earth. - 2018–2019 – NASA 3D Printed Habitat Challenge: Entered the final phase of NASA's 3D Printed Habitat Challenge with the MARSHA (Mars Habitat) concept, pioneering use of a composite basalt-fiber and biopolymer for 3D-printed habitats. - Design phase: Selected as one of five top designs for its human-centric, upright Mars habitat concept. - Construction phase: Awarded first place overall, with a 15-foot-tall prototype commended for high autonomy and a recyclable biopolymer material that outperformed concrete competitors in pressure, smoke and impact tests. - 2020 – TERA Project: Launched the TERA terrestrial analog project, an eco-friendly 3D-printed dwelling using sustainable materials, to validate space-derived construction technologies on Earth and reduce waste and carbon footprint. - 2021–2023 – NASA Lunar Construction Collaboration: Selected by NASA under the Announcement of Collaboration Opportunity (ACO) program to co-develop lunar construction technologies alongside other leading companies. - In partnership with NASA Kennedy Space Center's Swampworks, advanced lunar 3D-printing technology through vacuum and cryogenic testing (down to roughly -200°C) with regolith-polymer feedstocks. - 2023 – Terrestrial Manufacturing Spin-out: Launched the ASTRA pilot robotic arm 3D printer and began rolling out large-format gantry-style 3D printers (starting with the T200 "Starforge") for industrial manufacturing applications. - 2024 – Lunar Infrastructure Research: In partnership with Michigan Technological University (MTU), began developing mass regolith infrastructures (MRIs) and related robotic systems to support lunar launch/landing, mobility, power and communications. Focus Areas - Space infrastructure and construction technologies. - Terrestrial large-format 3D printing and digital fabrication. - In-situ resource utilization (ISRU) methods for building with local materials. - Dual-use systems serving both space exploration and terrestrial industrial/defense needs. Source: https://www.aispacefactory.com ## What AI SpaceFactory does Overview SpaceFactory develops large-scale additive manufacturing (AM) systems that provide on-site production capability in infrastructure-limited and expeditionary environments. These systems integrate pellet-based material delivery, high-throughput extrusion and precise robotic motion to enable rapid production of industrial and mission-critical components. By transitioning production to the point of use, SpaceFactory's platforms help build supply chain resilience across industrial and defense sectors. The technology spans both terrestrial and space-related applications, including ISRU-aligned materials and manufacturing in austere environments. Capabilities - Large-scale, pellet-fed extrusion for high-throughput 3D printing. - Large-area, gantry-based motion systems for printing sizable components. - Support for composite materials, including high-fill fiber composites and granular feedstocks. - Flexibility to support materials and workflows relevant to in-situ resource utilization (ISRU). - Rapid prototyping and low-volume manufacturing of mechanical components with attritable economics. - Ongoing development toward ruggedized, containerized units optimized for rapid transport and immediate deployment. System Configuration (Representative) - Pellet extruder - Heated glass build bed - Auto-quad leveling - Mesh leveling - Vacuum material delivery system - Integrated touch screen interface Example Performance Metrics (Representative System) - Build volume: approximately 1000 mm x 1000 mm x 1600 mm - Overall dimensions: approximately 1630 mm x 1630 mm x 2460 mm - Weight: approximately 560 kg - Material throughput: around 3.4 kg/hr (about 7.5 lb/hr) - Print velocity: up to about 200 mm/s - Power: 208 V, 3-phase AC, 30 A (typical industrial supply) - Bed temperature: up to about 100°C (212°F) - Print temperature: up to about 280°C (536°F) Specific configurations, capabilities and performance figures may vary between systems and over time. Case Study – Autonomous Maritime Vessel Hull SpaceFactory demonstrated high-velocity production by executing a compressed, 24-hour design-to-deployment cycle for an autonomous maritime vessel: - Designed a water-tight structural hull for an RC reconnaissance and payload-delivery vessel. - Used a high-strength basalt-fiber polycarbonate composite material. - Completed digital design, automated material processing, large-format printing and structural testing within an accelerated schedule. This effort validated an end-to-end workflow for delivering functional hardware under tight time constraints, aligning with the requirements of expeditionary and remote operations where on-site manufacturing is a strategic advantage. Design and Manufacturing SpaceFactory's large-scale AM systems are designed and developed in the United States. Testing with NASA and other partners has included rugged transport and validation in cryogenic vacuum conditions, directly informing the development of expeditionary and space systems for frontier environments. Source: https://www.aispacefactory.com ## Where AI SpaceFactory works Primary Contact - Email: contact@spacefactory.ai - Phone: 1-800-901-3952 Mailing and Physical Address - Address: 6629 US Highway 31, Suite C, Tanner, AL 35671, USA Privacy SpaceFactory states that it will not share your contact information with any third party without your consent. For full details on how personal information is handled, refer to the company's Privacy Policy on its website. Lists Hull as a location. Names Maritime as a service area. Areas beyond these are not published. Source: https://www.aispacefactory.com ## Careers and Hiring Working at SpaceFactory SpaceFactory seeks extremely bright, passionate individuals to join a multidisciplinary team of engineers and architects working on long-horizon challenges in space and terrestrial construction technologies. The company emphasizes hands-on, cross-disciplinary work and looks for people who are prepared to commit to long-term, ambitious programs. How to Express Interest - Primary careers contact: join@spacefactory.ai Prospective candidates are encouraged to reach out by email with relevant background information, experience and interest areas. Example Roles SpaceFactory's hiring needs may change over time, but example roles mentioned include: - R&D Engineer - Engineering Intern For current openings, role requirements and application instructions, candidates should contact SpaceFactory directly or refer to the careers information on the company's website. Source: https://www.aispacefactory.com ## Lunar Infrastructure and Roads Overview SpaceFactory, in partnership with Michigan Technological University (MTU), is developing foundational lunar infrastructure technologies. A key achievement is the first-ever lunar "road" built and tested in a simulated space environment, replicating the dusty vacuum conditions of the Moon. This work is part of a NASA-funded Phase 1 Small Business Technology Transfer (STTR) project focused on enabling sustained lunar surface operations by improving mobility, safety and infrastructure durability. Lunar Road Technology - Uses lunar regolith simulant combined with biopolymers to create a novel "lunar asphalt" material. - Employs a robotic construction apparatus that lays and heats the material into a dense, cohesive surface. - The resulting pavement is designed to withstand the mechanical stresses of repeated lunar vehicle traffic. In testing, a simulated lunar rover wheel was driven over the road hundreds of times (hundreds of meters of traversal) with no dust accumulation observed on the wheel, highlighting the dust-mitigation benefits of the approach. Motivation: Reducing Risk and Cost of Lunar Missions Lunar regolith dust is highly abrasive, adherent and difficult to manage. It can: - Infiltrate mechanisms and degrade equipment. - Obscure sensors and optics. - Pose health risks and contamination risks for habitats. Prepared, paved surfaces can: - Reduce wear-and-tear on rovers and equipment. - Allow vehicles to be lighter and mechanically simpler. - Simplify navigation and dust-mitigation systems. - Extend vehicle service life and reduce maintenance and replacement needs. These benefits can translate to significant reductions in capital and operational costs over long-term missions. Mass Regolith Infrastructures (MRIs) Beyond roads, the SpaceFactory–MTU team is investigating mass regolith infrastructures (MRIs): - Structures composed almost entirely of regolith (local lunar material), with only a small fraction of non-regolith reinforcement. - Use specialized geogrids that can increase structural strength by well over 100-fold while representing only a small percentage of total mass. - Aim to provide robust foundations for launch/landing pads, mobility corridors, power systems and communication infrastructure. By leveraging in-situ resource utilization (ISRU) and minimizing Earth-supplied materials, these concepts target significant reductions in launch mass and overall mission cost while enabling more sustainable, long-term lunar exploration. Future Development Planned future work is aimed at: - Increasing the technology readiness level of lunar road and MRI concepts. - Integrating construction subsystems into a deployable lunar surface construction system. - Enabling both road construction and additive manufacturing of three-dimensional structures on the lunar surface. These efforts support the broader goal of building the foundational infrastructure required for sustainable, long-duration human and robotic presence on the Moon and beyond. Source: https://www.aispacefactory.com ## What AI SpaceFactory has not published yet These are things people ask AI SpaceFactory that its published information does not yet cover. - prices - availability - delivery times - contract terms - performance guarantees - mission success guarantees - employment guarantees - safety certifications Ask anyway — the agent will say plainly that it is not published rather than guess. ## Where this comes from https://www.aispacefactory.com