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In modern mechanical transmission systems, the connection between rotating shafts serves as a fundamental guarantee for stable power transmission and coordinated operation of mechanical components. As an indispensable connecting component in transmission machinery, elastic couplings have gradually become a core part of industrial transmission structures by virtue of their unique deformation characteristics and adaptive working performance. Unlike rigid coupling structures that pursue absolute connection rigidity, elastic couplings rely on the elastic deformation of internal flexible components to complete torque transmission, which can effectively buffer the mechanical vibration generated during equipment operation and compensate for various installation deviations between connected shafts. This unique working mechanism enables elastic couplings to adapt to complex and changeable industrial operating environments, covering low-speed heavy-load transmission scenarios and high-precision high-speed mechanical operation conditions. With the continuous upgrading of industrial manufacturing technology, the structural design of elastic couplings has been continuously optimized, and the performance differentiation among various types has become increasingly obvious, forming a complete product system that meets diverse industrial transmission demands.