← Back to NASA Technology Projects
Safe Temporal Assignment, Requirements, Deconfliction, and Optimization Model (STARDOM) (STARDOM)
Completed
Description
Safe Temporal Assignment, Requirements, Deconfliction, and Optimization Model (STARDOM) is a novel approach to managing Urban Air Mobility (UAM) airspace through time-based reservations rather than traditional first-come, first-served or distance-based separation. By assigning precise arrival times at waypoints/fixes, STARDOM dynamically mitigates collision risk, eases congestion, and improves efficiency for high-density UAM operations. This approach incorporates real-time flight data, probabilistic risk modeling, and adaptive speed adjustments to ensure each aircraft meets its designated time of arrival at each fix, significantly reducing the chance of conflict. Under NASA SBIR Phase I funding, Concept Solutions, LLC will develop and validate key components of this technology: 1. A digital framework for time-based allocation of route segments and waypoints, 2. Probabilistic collision-risk assessments using Monte Carlo simulations, and 3. Preliminary metrics for safety, efficiency, and scalability in busy airspace scenarios. The primary market for STARDOM is NASA and FAA research programs, eVTOL and UAM operators, and broader Advanced Air Mobility stakeholders looking to integrate large-scale, on-demand urban flight into the National Airspace System (NAS). By shifting toward precise temporal reservations, STARDOM seeks to enable safer, more efficient, and data-driven UAM operations and pave the way for sustainable, large-scale urban aviation.
Benefits
STARDOM aligns directly with NASA’s ongoing efforts to integrate Urban Air Mobility (UAM) into the National Airspace System in a safe, scalable way. By shifting from distance-based to time-based separation, STARDOM supports NASA’s In-Time Aviation Safety Management System (IASMS) research by enabling real-time collision risk monitoring and proactive deconfliction. Its probabilistic risk models, fed by high-fidelity flight and environmental data, offer a dynamic way to identify and mitigate operational hazards before they escalate into safety threats. STARDOM further advances NASA’s trajectory-based operations (TBO) vision by scheduling flights according to precise time-of-arrival targets at each waypoint. This enhances overall airspace efficiency and paves the way for increasingly automated or autonomous UAM operations—key elements of NASA’s Advanced Air Mobility and Future Aviation Systems Safety initiatives. The approach also supports concept exploration for high-density traffic corridors, vertiport integration, and robust ConOps development, offering NASA a framework to validate how UAM flights can coexist safely with conventional aircraft under demanding urban conditions. STARDOM’s time-based scheduling framework has broad commercialization potential for advanced air mobility markets beyond NASA’s research and development domain. Commercial eVTOL and cargo drone operators can use STARDOM to optimize their flight networks, reducing congestion and lowering operational costs while ensuring safety through dynamic, probabilistic risk calculations. Manufacturers of next-generation aircraft—including air taxis, delivery drones, and regional electric commuter planes—can integrate STARDOM’s real-time, time-slot assignment capabilities into their flight management systems, enabling scalable operations in crowded urban environments. In addition, private traffic management providers could incorporate STARDOM’s algorithms into service platforms to enhance route planning, capacity forecasting, and proactive deconfliction services. Regional and municipal authorities might adopt these solutions to regulate low-altitude airspace around vertiports and high-traffic corridors, creating a streamlined process to manage large fleets of urban aircraft. Beyond air passenger mobility, STARDOM’s framework can be adapted for emergency response applications, such as disaster relief or medical evacuations, where precise arrival times and safe route deconfliction are critical. As growing numbers of cities worldwide invest in UAM infrastructure, STARDOM’s time-based management approach positions operators and agencies to better handle surging traffic demands, reduce ground delays, and improve public acceptance through safer, more predictable flight operations. This sets the stage for global implementation, with potential partners ranging from major Avionics & Sensors providers and logistics companies to city planners, emergency services, and emerging air mobility startups.
Details
| Technology area | Air Traffic Management and Range Tracking Systems |
| Program | Small Business Innovation Research/Small Business Tech Transfer (SBIR/STTR) |
| Lead organization | Ames Research Center, Moffett Field, CA |
| Start date | 2025-09-29 |
| End date | 2026-03-27 |
Project contacts
Listed on TechPort itself — the most direct way to ask about this specific project.
How to get involved
This is a mature technology (TRL 7+) — the realistic path in is usually NASA's Technology Transfer Program: licensing an existing NASA patent, or a Space Act Agreement to use NASA facilities/expertise directly. NASA also runs a startup licensing program with no upfront fee for companies formed to commercialize a specific NASA technology.
None of these are guaranteed paths for this specific project — TechPort itself doesn't have an "apply" button. Reaching out to the contact(s) above with a specific question is usually the fastest way to find out what's actually open.