Platform Stabilization via Isolation Array and Active Damping

The patent removes the complex mechanical gimbal structures from the stabilization system, extracting only the essential function of isolating the payload from platform motion. This is achieved through a direct-mount configuration where the payload is suspended from the platform using simple elastic elements or dampers, eliminating the need for intricate gimbal mechanisms while maintaining stabilization performance.

The patent replaces the mechanical gimbal system with a non-mechanical or simplified mechanical suspension system using elastic elements, springs, or dampers. This substitution eliminates complex mechanical linkages, bearings, and actuators while achieving the same stabilization effect through passive elastic isolation or active control of simpler components.

The patent extracts the essential stabilization function from the complex gimbal system, leaving only simple suspension elements that are easy to manufacture and assemble. The payload is directly mounted to the platform using straightforward elastic or damping elements, eliminating the need for precision-machined gimbal components and complex assembly procedures.

The patent employs simple, inexpensive suspension elements such as elastic bands, springs, or basic dampers that can be easily replaced if needed. These components are far simpler and more economical than precision mechanical gimbals, reducing both initial manufacturing cost and ongoing maintenance expenses.

The patent segments the isolation function into independent linear and rotational components. The suspension system provides linear isolation through vertical elastic elements, while the payload is permitted to rotate freely about the suspension point. This segmentation allows each degree of freedom to be treated independently, achieving both isolation and rotational freedom.

The patent changes the isolation parameters by using asymmetric suspension configurations or anisotropic damping elements that provide strong isolation in the linear direction while offering minimal resistance to rotational motion. This parameter differentiation allows the system to simultaneously achieve linear isolation and rotational freedom.