Active Shock Absorption Arm for Camera Swing Stabilization
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Solution Overview
Problem
Existing shock absorption arm structures, relying on shock-absorbing springs, face challenges during filming, particularly concerning camera shaking and lateral inertia, which pose difficulties in maintaining precise control over camera stability and preventing detachment at the head of the shock absorption arm.
Innovation Solution
A shock absorption mechanism comprising a connector, a supporting component with movable connection to the connector, and a shock absorption component with rotational connection to the connector and movable connection to the supporting component, facilitating controlled oscillations to mitigate centrifugal force and prevent camera jitter.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If shock-absorbing springs are used in the shock absorption arm, then shock absorption function is provided, but camera shaking and lateral inertia cannot be effectively controlled
Solution Approach 1:
The patent introduces an active control system with motors that dynamically adjust the shock absorption arm's position and damping characteristics in real-time, transforming the passive mechanical shock absorption into an active controlled system. This allows the system to adapt to varying vibration conditions and maintain camera stability effectively.
Solution Approach 2:
The patent employs sensors to detect vibration and camera position, feeding this information back to the control system which then adjusts the motor actuation and damping forces accordingly. This closed-loop feedback mechanism enables precise control over camera stability despite external disturbances.
2Device complexity
If conventional shock absorption structure is used, then simple structure is maintained, but detachment prevention at the head of shock absorption arm is difficult
Solution Approach 1:
The patent incorporates active motors and control systems that proactively counteract vibrations and forces before they can cause detachment. The system continuously monitors and applies compensating forces to maintain secure attachment of the camera to the shock absorption arm, preventing detachment issues.
3Stability of the object's composition
If shock-absorbing springs are used, then buffering function is achieved, but precise control over camera stability is difficult
Solution Approach 1:
The patent replaces the purely mechanical spring-based shock absorption system with an electro-mechanical system incorporating motors, sensors, and electronic control. This substitution enables precise electronic control over damping forces and position, achieving superior camera stability control compared to passive mechanical systems.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The mechanism effectively buffers centrifugal force and prevents camera jitter, ensuring the stability of captured footage by autonomously rotating and actuating the supporting component to induce controlled oscillations in both lateral and longitudinal directions.
Implementation Method 1
The mechanism effectively buffers centrifugal force and prevents camera jitter
Implementation Method 2
autonomously rotating and actuating the supporting component to induce controlled oscillations in both lateral and longitudinal directions
Data Source
AI summary
The present disclosure introduces a shock absorption mechanism, regulating method, and control method, particularly applicable to shock absorption technology for devices like in-vehicle filming equipment. The system comprises connectors, shock absorption components, and supporting components. The connectors exhibit movable connections with the shock absorption components, while the supporting components establish drivable connections with the shock absorption components. Additionally, the connectors are also movably linked to the supporting components. A notable feature of this invention, distinct from existing technologies, is the shock absorption components' capacity to induce front-back or left-right oscillations in the supporting components through their inherent rotation when detecting a tendency for swinging. This proactive response effectively mitigates the centrifugal force resulting from camera swinging, preventing detachment between the camera and the shock absorption arm and averting camera jitter. Consequently, the stability of the recorded footage is assured.


