Elastic Support Collar for Cables and Pipes
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Solution Overview
Problem
Existing support collars for cables and pipes are limited in adapting to varying diameters and geometries, and they do not effectively address the issue of passive intermodulation in telecommunications infrastructure, which degrades network quality.
Innovation Solution
A support collar with an elastically deformable structure, featuring flexible retaining arms and flaps, designed to securely hold cables or pipes of different diameters, and allowing for stackable and easy positioning, made from a lightweight and cost-effective plastic material.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Strength
If support collars use rigid metal structures, then strength and stability are improved, but adaptability to different cable diameters deteriorates
Solution Approach 1:
The support collar uses elastic material properties to enable dynamic parameter changes in the retaining arms, allowing them to flex and adapt to different cable diameters while maintaining structural integrity through material elasticity
Solution Approach 2:
The retaining arms are designed as flexible elastic structures that can deform to accommodate various cable sizes, providing both adaptability and sufficient holding force through elastic deformation rather than rigid construction
2Adaptability or versatility
If support collars use elastic structures, then adaptability to different geometries is improved, but locking stability for small diameter cables deteriorates
Solution Approach 1:
The support collar features localized structural variations where the retaining arms have different flexibility characteristics in different regions, with enhanced rigidity in specific zones to ensure stable locking for small diameter cables while maintaining overall adaptability
Solution Approach 2:
The elastic retaining arms provide dynamic adaptation to different cable geometries while maintaining stable locking through controlled elastic deformation, allowing the structure to adjust to varying cable sizes while ensuring reliable retention
3Reliability
If support collars use complex metal structures, then locking reliability is improved, but manufacturing cost deteriorates
Solution Approach 1:
The support collar uses inexpensive plastic material that can be easily manufactured and replaced if needed, providing sufficient locking reliability for the application while dramatically reducing manufacturing costs compared to metal alternatives
Solution Approach 2:
The invention replaces complex metal mechanical structures with a simpler plastic elastic structure that achieves equivalent or sufficient locking reliability through elastic deformation, reducing manufacturing complexity and cost
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 solution provides stable locking for cables and pipes of varying diameters, reduces production and marketing costs, and minimizes passive intermodulation, enhancing network performance and infrastructure adaptability.
Implementation Method 1
The elasticity of the retaining arms of said clip together with the presence of side portions without structural folds gives an elastic yield which allows the support collar to easily adapt to different geometries and/or dimensions of the cables or pipes
Data Source
AI summary
A support collar for cables, pipes or the like includes a head portion having a pass-through opening; two side portions extending from the head portion and ending with abutment portions disposed substantially parallel to the head portion and with a coupling element adapted to engage the collar onto a support plate or the head portion of another support collar; and retaining members within the housing area for retaining firmly the cable or pipe. The retaining members include a clip having retaining arms that extend inside the housing area and can be elastically splayed to engage the cable or pipe due to an elastic pressure exerted transversely thereon. Each of the retaining arms cooperates with a flap that extends into the housing area opposite of the retaining arms, so that the flap is abutted against the retaining arm when the cable or pipe is engaged in the clip.


