Space Robotics Workers has selected Spacedock's intelligent interface for integration with its robotic Smart Truss system, a modular structural element designed for orbital assembly and maintenance of space infrastructure. The companies will conduct a ground demonstration in early 2026 to validate autonomous capture and structural connection between Smart Truss units using Spacedock's interface for autonomous berthing, docking, and power, fluid, and data transfer. This test, conducted in a ground-based analog environment, represents a critical milestone toward SRW's roadmap for robotic construction of Commercial LEO Destination platforms, solar power stations, and other persistent orbital structures.
Negar Feher, CEO of Spacedock, emphasized the broader implications of the collaboration, stating that their partnership with SRW demonstrates how Spacedock's intelligent interface accelerates the shift to a modular, serviceable, and sustainable space ecosystem. By making orbital systems upgradeable and maintainable, the technology helps the industry protect billions in assets and extend mission lifetimes. This approach addresses the growing need for sustainable space operations as humanity expands its presence in orbit.
Raffaele Vitulli, Technical Director of SRW, explained that selecting Spacedock reflects more than just an interface choice but rather confidence in an architecture that can scale with their vision for a permanent and vigorous human presence in orbit. SRW, based in Spain, develops autonomous robotics technologies for on-orbit assembly and servicing, positioning the company at the forefront of orbital construction technology. The integration of Spacedock's interface represents a strategic alignment between two companies working toward complementary goals in space infrastructure development.
Spacedock, headquartered in California, is developing the universal interface for space systems—an AI-powered, cyber-secure hardware-and-software layer that enables rapid hosted-payload integration and secure berthing, docking, and transfer of power, data, and fluids. Each Spacedock unit functions as a data node for AI-driven diagnostics, cybersecurity, and optimization, forming the backbone of interoperable, upgradable space infrastructure. The technology's ability to handle multiple transfer types—power, data, and fluids—makes it particularly valuable for complex orbital operations where multiple systems must interact seamlessly.
The ground demonstration scheduled for early 2026 will validate the technical capabilities of the integrated system in a controlled environment before potential space-based testing. This methodical approach reduces risk while demonstrating the practical application of autonomous orbital assembly technologies. The successful implementation of such systems could revolutionize how space infrastructure is built and maintained, moving away from single-launch, static structures toward modular, upgradeable platforms that can evolve with changing mission requirements and technological advancements.
