Corner Booster with Cocking Mechanism for Toy Vehicles
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Solution Overview
Problem
Typical toy vehicle boosters waste energy by constantly spinning, require frequent battery changes, and are unable to accelerate vehicles around corners or handle irregularly shaped vehicles.
Innovation Solution
A corner booster with a cocking mechanism that preloads mechanical energy to accelerate toy vehicles around corners, using a booster member like a paddle that is activated by a trigger mechanism, reducing energy consumption and improving compatibility with various vehicle shapes.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Loss of energy
If typical boosters constantly spin booster wheels to accelerate toy vehicles, then acceleration function is maintained, but energy consumption increases and batteries require frequent changes
Solution Approach 1:
The booster wheel operates intermittently rather than continuously. The cocking mechanism winds up elastic energy storage elements during idle periods, and the booster wheel delivers acceleration in periodic bursts when vehicles pass through. This periodic operation dramatically reduces energy consumption while maintaining the acceleration function when needed.
Solution Approach 2:
The cocking mechanism performs preliminary action by winding up and storing elastic potential energy in advance before a vehicle arrives. The elastic energy storage elements are pre-charged during periods when no vehicle is present, so that when a vehicle enters the acceleration zone, the stored energy is immediately released to spin the booster wheel, eliminating the need for continuous motor operation.
2Adaptability or versatility
If typical boosters use linear track sections, then acceleration is effective, but corners cannot be accelerated
Solution Approach 1:
The booster wheel and track section are designed with curved geometry to accommodate corner acceleration. The booster wheel rotates in an arc rather than a straight line, and the track section follows a curved path. This curvature allows the booster to effectively accelerate vehicles around corners while maintaining the necessary contact and force application.
3Adaptability or versatility
If typical boosters engage vehicle sides, then acceleration is applied, but irregularly shaped vehicles are not handled well
Solution Approach 1:
The elastic energy storage elements and booster wheel arrangement create an intermediary contact system that adapts to different vehicle shapes. Rather than direct rigid engagement, the flexible elastic elements and curved geometry provide a mediating interface that can accommodate various vehicle configurations while still delivering consistent acceleration force.
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 corner booster efficiently accelerates toy vehicles around corners with reduced energy usage and improved compatibility, eliminating the need for constant motor spinning and frequent battery changes.
Implementation Method 1
The corner booster includes a cocking mechanism that cocks the booster member with preloaded mechanical energy. The preloaded mechanical energy is used to move the booster member to apply the boosting force to the toy vehicle.
Data Source
AI summary
A corner booster for accelerating toy vehicles includes an entrance to which a toy vehicle enters the booster, and an exit from which the toy vehicle exits the booster. The entrance and exit are orientated so that the toy vehicle turns when traveling from the entrance to the exit. The corner booster further includes a booster member for applying a force to the toy vehicle. The force applied by the booster member increases the speed of the toy vehicle as the toy vehicle travels from the entrance to the exit. The corner booster includes a cocking mechanism that cocks the booster member with preloaded mechanical energy. The preloaded mechanical energy is used to move the booster member to apply the boosting force to the toy vehicle.