Tapered Railing Anchoring System for Precision Fit
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Solution Overview
Problem
Conventional anchoring systems for railings and guiderails lack efficiency, precision, and security in anchoring and releasing mechanisms, often requiring complex adjustments and compromising stability and adaptability.
Innovation Solution
An anchoring system featuring a female component with an elongated cavity and a male component with tapered surfaces, allowing for a secure and adjustable fit that decreases spacing tolerance as inserted, combined with a spring-loaded locking mechanism for easy and quick release.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If conventional anchoring systems are used for railings, then the railing can be anchored to the base surface, but the anchoring process is complex and time-consuming with poor precision
Solution Approach 1:
The anchoring system is divided into separate male and female components that can be independently manufactured and assembled. The female component is embedded in the base surface while the male component attaches to the railing, allowing for simplified installation procedures and reduced overall system complexity.
Solution Approach 2:
The male component is designed to fit within the elongated cavity of the female component, creating a nested structure. This nesting arrangement simplifies the anchoring process by providing a straightforward insert-and-lock mechanism that reduces installation time and complexity.
2Manufacturing precision
If conventional anchoring systems are used, then the railing can be secured, but the spacing tolerance is large resulting in poor fit precision
Solution Approach 1:
The male component features a tapered surface that creates a conical fit within the female component's elongated cavity. This tapered geometry progressively reduces spacing tolerance as the components are assembled, ensuring precise alignment and fit while maintaining ease of installation through the self-aligning nature of the tapered interface.
3Ease of operation
If conventional anchoring systems are used, then the railing is anchored securely, but the release process is difficult and time-consuming
Solution Approach 1:
The anchoring system incorporates a spring-loaded locking mechanism that dynamically transitions between locked and unlocked states. The spring provides automatic engagement for secure anchoring while enabling quick release when activated, combining reliability with operational ease without requiring complex adjustment procedures.
4Strength
If the anchoring system uses tapered surfaces to decrease spacing tolerance, then the fit becomes more secure, but the insertion force required increases
Solution Approach 1:
The female component is pre-installed and embedded in the base surface before the male component is attached to the railing. This preliminary positioning allows the tapered surfaces to guide the insertion process, reducing the peak insertion force required while maintaining the security benefits of the tapered fit.
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 provides a secure, adjustable, and efficient anchoring solution that accommodates fabrication and installation errors, ensuring a stable and secure fit with easy installation and removal, while the locking mechanism ensures safety and ease of use.
Implementation Method 1
at least one of the male and female components is provided with at least one tapered surface, and wherein the male and female components of the anchoring system are shaped and sized with respect to one another so that a spacing tolerance between the male and female components decreases as the male component is inserted into the elongated cavity of the female component
Data Source
AI summary
An anchoring system for use with an erectable guiderail intended to be anchored with respect to a base surface. The anchoring system includes a female component being positioned and sized for lodging into a corresponding hole provided about the base surface and about which the guiderail is intended to be anchored, the female component defining an elongated cavity having a longitudinal axis. The anchoring system also includes a male component being operatively mountable onto a corresponding portion of the guiderail, the male component having an inserting portion being removably insertable into the elongated cavity of the female component. At least one of the male and female components is provided with at least one tapered surface, and the male and female components of the anchoring system are shaped and sized with respect to one another so that a spacing tolerance between the male and female components decreases as the male component is inserted into the elongated cavity of the female component along the longitudinal axis thereof.