Hypersonic glide vehicles: companies, research and technology

Lockheed Martin Global and Lockheed Martin are among the named industry participants; Boeing Company and GoHypersonic Inc. also appear in the application and approach data. Lockheed Martin Global is associated with boost and launch architectures and the Long-Range Hypersonic Weapon. The U.S. Army and U.S. Navy are key program organizations, jointly pursuing the Common-Hypersonic Glide Body.

FACTS lists 0 startups in this topic, so it does not identify a startup as the most promising. GoHypersonic Inc. appears among organizations associated with several applications, but it is not included in the startups list. The available information therefore supports identifying activity and named organizations, not ranking startup prospects or assessing their commercial readiness.

Harbin Institute of Technology, Beihang University and Northwestern Polytechnical University are prominent research organizations in FACTS, with 11, 9 and 9 documents respectively. Their work includes active cooling and maneuver modeling, reinforcement-learning trajectory planning, and physics-informed guidance and control. Recent publications also name the National University of Defense Technology and Beijing Institute of Technology.

FACTS records $0 in grant funding across 1 grant since 2020, and no funding rounds. These figures describe the funding entries recorded for this topic; they do not establish that no public or private spending exists outside those entries. The listed grant amount is $0, and no round-level investment amounts are provided.

Lockheed Martin is the only patent holder named in FACTS, with 1 patent. The data records 1 patent in the current window overall, so there is no broader set of listed holders to compare. The topic data does not provide enough information to infer the full scope of each organization’s intellectual property beyond these recorded entries.

Recent developments include Lockheed Martin’s Next Generation Glide Body announcement in June 2026 and South Korea’s first test launch of a domestically developed hypersonic glide vehicle in October 2026. Research published in August 2026 proposed reinforcement-learning trajectory planning under flight constraints. September 2026 publications examined coordinated guidance and control, vehicle surface optimization and reentry path tracking.

Recent methods include automatic-curriculum reinforcement learning for trajectory planning, physics-informed neural predictor-corrector guidance, and B-spline modeling of vehicle surfaces. FACTS also identifies trajectories, electronic guidance systems, trajectory planning and trajectory optimization as emerging terms. The work addresses constraints such as heat flux, control limits, no-fly zones and uncertainty in vehicle dynamics.

The approaches are Aerodynamic configurations, Thermal protection and materials, Guidance, navigation and control, Trajectory and maneuver planning, and Boost and launch architectures. They address vehicle shape, heat management, flight control, route selection and deployment, respectively. Their trade-offs are coupled: maneuver flexibility can raise thermal or control demands, while launch and vehicle design choices constrain the system.

The United States and China lead by recorded document volume, with 895 and 521 documents respectively. The United Kingdom follows with 190, while France, Japan and Germany each have fewer than 100. These country figures indicate recorded activity, not a direct comparison of vehicle capability, program maturity or operational status.

FACTS lists Strategic nuclear delivery, Conventional land attack, Anti-ship strike and Missile defense evaluation as applications. The recorded document counts are 24, 54, 51 and 47 respectively. Program descriptions also connect boost-glide systems to the U.S. Army’s Long-Range Hypersonic Weapon and a ship-launched weapon pursued by the U.S. Navy.