Wind-Actuated Bird Decoy Wing Assembly Without Batteries
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Solution Overview
Problem
Conventional migratory bird decoys relying on battery-operated motion decoys are cumbersome and environmentally unfriendly, particularly for hunters who prefer traditional methods or have to transport bulky gear, as they require power sources and are not appealing to 'purist' or environmentalist hunters.
Innovation Solution
A wind-actuated migratory bird decoy wing assembly that converts static decoys into effective, motion-simulating decoys using an elongate shaft and flexible flag mounted on a strap, allowing flapping movement without a power source, appealing to hunters who prefer environmentally friendly and lightweight options.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If battery-operated motion decoys are used to simulate bird movement, then hunting effectiveness is improved, but device complexity and weight increase due to power source requirements
Solution Approach 1:
The patent removes the battery power source from the decoy system entirely, extracting the harmful element (complexity and weight of power requirements) while preserving the beneficial effect (bird movement simulation). The wind-actuated mechanism replaces electronic motors, eliminating all associated complexity.
Solution Approach 2:
The decoy system uses wind energy from the natural environment to power the flapping motion, making the system self-sufficient without external power sources. The wind vane and shaft assembly automatically convert wind energy into wing-flapping motion, serving itself without batteries or motors.
2Reliability
If battery-operated motion decoys are used to simulate bird movement, then hunting effectiveness is improved, but portability deteriorates due to bulky gear
Solution Approach 1:
The patent extracts the heavy battery and motor components from the decoy system, replacing them with lightweight wind-catch surfaces and simple mechanical linkages. This dramatically reduces the weight and bulk of the decoy while maintaining the motion simulation capability.
Solution Approach 2:
By using wind energy from the environment rather than carrying heavy batteries, the system achieves portability without sacrificing motion simulation effectiveness. The wind-powered mechanism is inherently lighter than battery-operated alternatives.
3Reliability
If battery-operated motion decoys are used, then motion simulation is achieved, but environmental friendliness deteriorates
Solution Approach 1:
The patent converts the harmful reliance on batteries and electronic waste into a beneficial wind-powered mechanical system. By harnessing wind energy, the system eliminates battery disposal issues and electronic pollution while maintaining effective motion simulation for hunting.
Solution Approach 2:
The wind-actuated mechanism uses free energy from the environment, eliminating the need for consumable batteries and reducing environmental impact. The mechanical flapping system requires no electronic components that would become waste.
4Device complexity
If static decoys are used to lure birds, then simplicity is maintained, but hunting effectiveness deteriorates due to lack of motion simulation
Solution Approach 1:
The patent transforms the static decoy into a dynamic system by adding wind-actuated flapping wings. The simple mechanical connection between the wind vane, shaft, and wing assembly allows natural wind to create realistic flapping motion, enhancing hunting effectiveness while maintaining overall system simplicity.
Solution Approach 2:
The shaft and wind vane assembly act as intermediaries that convert wind energy into wing flapping motion. This simple mechanical intermediary system bridges the gap between static decoy simplicity and dynamic motion simulation effectiveness.
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 wind-actuated decoy wing assembly enhances hunting effectiveness by simulating bird wing movement, appealing to both traditional and environmentalist hunters, offering a lightweight, compact, and environmentally friendly solution that does not require batteries, thus addressing the limitations of traditional motion decoys.
Implementation Method 1
a flag that flaps in response to wind
Data Source
AI summary
A migratory bird decoy wing assembly for use with a migratory bird decoy includes an elongate shaft extending in a straight line between a first end and an opposite second end and a first flexible flag. The first flexible flag is adapted to be flappingly displaceable relative the elongate shaft. The migratory bird decoy wing assembly also includes an elongate shaft mounting device constructed to removably mount the elongate shaft on a body of the migratory bird decoy so that the elongate shaft extends perpendicular to the surface of the migratory bird decoy body and flapping movement of the first flexible flag produced by wind simulates the movement of a bird flapping its wing.


