Animal Roping Form with Resilient Torsion Joints
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Solution Overview
Problem
Existing animal roping systems fail to provide realistic training simulations due to their inability to mimic the movements and resistances of live animals, often using rigid materials that wear out quickly and cannot replicate the feel of real animals, leading to limited training effectiveness and safety concerns.
Innovation Solution
An improved animal roping system featuring a tension-coupled, anatomically accurate animal form with tractable leg elements and resilient torsion control joints, made from flexible materials like urethane foam, which can replicate the movements and resistances of live animals, and is designed for safe and durable use.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Strength
If rigid materials are used in animal roping forms, then structural strength is improved, but realism and durability are worsened due to quick wear and inability to replicate live animal feel
Solution Approach 1:
The patent changes the material parameter from rigid to flexible (urethane foam), transforming the animal form from a static structure to a dynamic simulation that replicates live animal characteristics. This material substitution enables the form to bend, compress, and resist forces similarly to real animals, improving both realism and durability while maintaining structural integrity.
Solution Approach 2:
The patent employs composite construction combining urethane foam with metal fasteners and anatomically accurate structural elements. This composite approach integrates the flexibility and comfort of foam with the strength and durability of metal components, creating a resilient system that withstands repeated use while maintaining the feel and movement characteristics of live animals.
2Device complexity
If simple frame structures are used, then device complexity is reduced, but training effectiveness is worsened due to inability to mimic life-like movements
Solution Approach 1:
The patent transforms the static frame structure into a dynamic system where the urethane foam body can flex, bend, and move in response to applied forces. The anatomically accurate form with articulated joints and tractable legs provides realistic movement simulation, enabling effective training of roping techniques while maintaining a relatively simple overall structure that is easy to manufacture and deploy.
3Ease of manufacture
If non-articulated animal forms are used, then manufacturing complexity is reduced, but realism is worsened due to inability to replicate life-like movements and resistances
Solution Approach 1:
The patent segments the animal form into anatomically distinct regions (head, body, articulated joints, legs) that can move independently. The urethane foam is molded in sections that can articulate at joint locations, allowing the form to replicate life-like movements while maintaining manufacturing feasibility through modular construction and standardized anatomical templates.
Solution Approach 2:
The patent applies different material properties to different regions of the animal form. The urethane foam provides flexible, compliant surfaces in areas requiring movement, while metal fasteners and structural elements provide rigidity in load-bearing regions. This localized differentiation of material qualities enables realistic movement simulation while maintaining overall structural integrity and manufacturability.
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 system allows for realistic and safe training of rodeo techniques, enhancing the user's speed and efficiency in roping and tying, while being durable and long-lasting, reducing the risk of injury to both the roper and animal.
Implementation Method 1
at least one resilient torsion control joint connection (5) which may be articulated in such a manner so as to be tension coupled allowing for tractable individual elements
Implementation Method 2
tension coupled allowing for tractable individual elements that more replicate the movement and resistances displayed in a live animal
Data Source
AI summary
The current inventive technology is generally directed to an improved animal roping form representing an improved training system applicable to various animal roping activities. Some embodiments of the inventive technology may include, for example, an animal form (2), a tractable leg element (3), a joint element (4) and a resilient torsion control joint connection (5) that may facilitate the tension coupling of the leg element (s0 to said animal form to more realistically mimic a live animal movement and resistance. In addition, some embodiments may include support attachment element (6) coordinated with a support element (8) allowing, for example such animal form to be suspended or conveyed to approximate animal movement to create a realistic roping training system. Further embodiments may have a knee joint (16) to more fully replicate the anatomical movements of a real animal leg joint.