Research abstract
The Space Development Agency (SDA) is at the forefront of deploying multilayered space-based capabilities, launching a growing number of Space Vehicles (SVs) biennially to bolster the United States Space Force's communication, tracking, and custody missions. This accelerated pace challenges conventional manufacturing, testing, and deployment practices, particularly concerning defense-grade satellites. The traditional "Flatsat" approach, necessitating ground-based, hardware-in-the-loop testing for each SV bus and payload, faces significant scalability issues. The physical, financial, and human resource demands for building, operating, and storing Flatsats burgeon as SV permutations increase and software updates diversify. Centralized Flatsat facilities, while resource-intensive, remain distant from a majority of mission developers and operators, impeding accessibility and utility. Manufacturers grapple with these challenges due to the specialized components and finite Engineering Demonstration Units (EDUs) required for Flatsats, leading to delays and inconsistencies between Flatsats and final SV configurations. The proposed solution leverages the Antaris Cloud Platform (ACP), a cutting-edge, commercially available platform offering a collaborative, cloud-based or on-premises Digital Flatsat environment via Antaris TrueTwin™. TrueTwin™ facilitates comprehensive, high-fidelity virtual SVs—Digital Flatsats—that accurately replicate internal systems and payloads, scalable within the client's preferred cloud platform. The market has already signaled strong demand for such innovation, evidenced by the swift adoption of the Antaris TrueTwin™ platform across commercial and government sectors. The ACP, designed for extensive compatibility with hardware and software from diverse suppliers, encompasses three core modules: Antaris Design Studio (Digital Flatsat creation), TrueTwin™ simulation environment (testing and simulation), and SatOS (SV software and operations module). This modular approach, underscored by open APIs and open-source software, promises seamless integration for all users. The proposed ACP expansion aims to empower the SDA and its contractors to efficiently generate Digital Flatsats, ensuring payload adaptability, heightened mission assurance, and optimal budget allocation. Extending beyond Digital Flatsats, ACP also offers sophisticated tools for operators and mission planners, enabling realistic TT&C command-level simulations for every SV subsystem and payload. Mission simulations, executable in real or accelerated time, can be directly uploaded to the orbiting constellation post-testing, offering comprehensive mission emulation. This innovation, central to our TrueTwin™ patent, revolutionizes digital engineering and twinning solutions, setting a new standard for rapid, flexible, and cost-effective SV configuration, simulation, and operation.
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4 SBIR/STTR records share this UEI (2023–2025). Reported award amounts total $3,939,375. Reported amounts are not federal obligations.