COMPOSITE OVER-WRAPPED PRESSURE VESSEL TECHNOLOGY FOR SPACECRAFT PROPULSION SYSTEMS
Keywords:
Aerospace propulsion systems, Composite pressure vessels, Metal liners, Fiber-reinforced composites, Reliability, Stress fracture lifeAbstract
This paper systematically reviews global progress in composite overwrapped pressure vessels (COPVs) for space applications and projects their trajectory, synthesizing key advances from the United States, Europe and leading Asian nations in structural and reliability design, stress-fracture and low-cycle-fatigue life prediction, material selection, forming, qualification and non-destructive testing, including high-strength fibers, ultra-thin metallic liners, inheritable design principles and validated failure models, and summarizing representative work by principal Chinese institutes and universities; on this basis it proposes future Chinese directions-high-strength fiber optimization, advanced liner alloys, burst-factor and performance-factor tuning, next-generation NDT, upstream pre-research and Standardization-to underpin independent R&D and technological upgrading of high-performance aerospace COPVs.References
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