Severable Limb Separation Training Connector
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Solution Overview
Problem
Conventional training techniques for maintaining optimal limb separation in sports, such as tennis and boxing, are often cumbersome and hazardous, particularly when performed at full speed, as they require physical restraints like ropes that can cause accidents or hinder movement.
Innovation Solution
A training apparatus with adjustable straps and a severable connector assembly that attaches to limbs, featuring a reusable injection design or magnetic clasp, allowing for adjustable breakaway forces to ensure optimal limb separation without the risks of traditional restraints, facilitating muscle memory training by preventing excessive limb separation.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Manufacturing precision
If ropes are used to tie limbs together to maintain optimal limb separation, then limb separation control is improved, but safety and ease of operation deteriorate due to hazards and complexity
Solution Approach 1:
The connector assembly is divided into separable components (first connector portion and second connector portion) that can be independently attached to each limb. This segmentation allows the restraint system to be applied and removed easily while maintaining limb separation control, eliminating the safety hazards of traditional ropes.
Solution Approach 2:
The connector assembly incorporates adjustable elasticity and configurable breakaway forces that allow dynamic adjustment of the restraint characteristics. This enables the system to adapt to different training stages and intensity levels, providing effective limb separation control while preventing injury through controlled release under excessive force.
2Manufacturing precision
If traditional restraints are used for limb separation training, then limb positioning control is improved, but device complexity and ease of operation worsen
Solution Approach 1:
The system is divided into modular components including adjustable straps, connector assemblies with elastic elements, and separable joining mechanisms. This modularity simplifies the overall complexity while maintaining precise limb positioning control, as each component performs a specific function and can be independently adjusted or replaced.
Solution Approach 2:
The connector assembly allows adjustment of multiple parameters including elastic tension, breakaway force thresholds, and strap length. These parameter adjustments enable customization of the restraint characteristics to match different training requirements, simplifying operation by providing a single device that can adapt to various scenarios rather than requiring multiple different restraint systems.
3Force
If breakaway force is configured to be strong for effective training, then muscle memory development is improved, but safety deteriorates due to potential injury from excessive force
Solution Approach 1:
The connector assembly incorporates configurable breakaway force mechanisms that allow the restraint strength to be adjusted according to the user's training level and physical condition. This dynamic adjustment capability enables effective muscle memory development through appropriate force application while preventing injury by allowing controlled release when forces exceed safe thresholds.
Solution Approach 2:
The system incorporates safety mechanisms that are pre-configured to release under excessive force before injury can occur. The breakaway feature acts as a pre-planned safety cushion, ensuring that even if the user applies excessive force during training, the system will release to prevent injury while still providing effective training stimulus at appropriate force levels.
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 apparatus effectively trains athletes to maintain optimal limb positioning by providing a safe and adjustable means to enforce desired movement patterns, enhancing muscle memory development and power generation while minimizing the risk of injury.
Implementation Method 1
The severable connector assembly comprises a reusable magnetic design having a first clasp configured to magnetically attach to a second clasp
Data Source
AI summary
A training apparatus is disclosed, which includes a first strap configured to attach to a first limb, and a second strap configured to attach to a second limb. The training apparatus also includes a severable connector assembly coupled to the first strap on one end, and to the second strap on an opposite end. The severable connector assembly is reusable and configured to sever according to a threshold breakaway force. In a particular embodiment, the severable connector assembly is an injection design comprising a male component configured to mate with a female component, and further configured to sever from the female component according to a threshold breakaway force. In another embodiment, the severable connector assembly is a magnetic design comprising a first clasp configured to magnetically attach to a second clasp, and further configured to sever from the second clasp according to a threshold breakaway force.