Tree Saddle Magnetic Coupling System for Profile Reduction
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Solution Overview
Problem
Conventional tree saddles are often bulky and rigid, limiting user mobility due to their fixed design, which restricts adaptability and flexibility during various activities such as hunting or climbing.
Innovation Solution
A tree saddle design featuring a magnetic coupling system with first and second magnetic arrays on interconnected panels, allowing the saddle to transition between coupled and uncoupled conditions, thereby changing its profile from a larger, more supportive configuration to a slimmer, more mobile one, utilizing flexible connectors and a belt system for secure attachment.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Stability of the object's composition
If conventional tree saddles are designed with fixed rigid structures, then structural stability is improved, but user mobility and adaptability deteriorate
Solution Approach 1:
The tree saddle is divided into multiple panels that can be independently positioned and connected. These panels can be coupled together to form a stable structure when needed, or separated to allow greater mobility and adaptability, directly resolving the contradiction between structural stability and user mobility.
Solution Approach 2:
The tree saddle incorporates a magnetic coupling system that allows the panels to dynamically transition between coupled and uncoupled states. This dynamic capability enables the structure to adapt its stability and mobility characteristics based on user needs, rather than being fixed in one configuration.
2Strength
If tree saddle panels are coupled together, then structural support is improved, but profile size and bulkiness worsen
Solution Approach 1:
The panels are designed to nest together when coupled through the magnetic coupling system. The overlapping configuration allows the panels to interlock in a space-efficient manner, providing structural support while minimizing the overall profile size and reducing bulkiness.
3Reliability
If magnetic arrays are disposed on panels, then coupling reliability is improved, but device complexity worsens
Solution Approach 1:
The magnetic coupling system replaces traditional mechanical fastening mechanisms (such as buckles, clips, or screws) with magnetic attraction forces. This substitution improves coupling reliability through consistent magnetic attraction while reducing device complexity by eliminating multiple mechanical components and their associated adjustment mechanisms.
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 magnetic coupling system enables a flexible and adaptable tree saddle that provides better mobility and support, allowing users to easily switch between expanded and cinched conditions based on the activity's requirements, enhancing user experience and functionality.
Implementation Method 1
A magnetic coupling system includes a first magnetic array disposed on the first panel, and a second magnetic array disposed on the second panel. The first magnetic array is magnetically coupled to the second magnetic array when the tree saddle is in a coupled condition.
Data Source
AI summary
A tree saddle includes a first panel having first and second ends with a body portion disposed therebetween, and a second panel having first and second ends with a body portion disposed therebetween. One or more connecting members operably couple the first and second panels to one another. A magnetic coupling system includes a first magnetic array disposed on the first panel, and a second magnetic array disposed on the second panel. The first magnetic array is magnetically coupled to the second magnetic array when the tree saddle is in a coupled condition. The first magnetic array is uncoupled from the second magnetic array when the tree saddle is in an uncoupled condition. The tree saddle includes a first profile when the tree saddle is in the uncoupled condition that is greater than a second profile of the tree saddle when the tree saddle is in the coupled condition.