Slotted Abrasive Retention Tool for Confined Surface Cleaning
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Solution Overview
Problem
Existing rust and contaminant removal equipment is bulky, inflexible, and requires disassembly for hard-to-reach areas, leading to inefficiency and increased maintenance costs, with limited adaptability and quick wear of abrasive components.
Innovation Solution
A slotted retention tool with a compact design and adaptable configuration for power-driven tools, allowing easy replacement of abrasive materials, suitable for confined or hard-to-reach areas, and accommodating various surface geometries.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of operation
If existing rust and contaminant removal equipment is used, then cleaning function is provided, but the equipment is bulky and requires disassembly for hard-to-reach areas
Solution Approach 1:
The cleaning tool is divided into modular components: a replaceable abrasive element and a power tool interface body. This segmentation allows the abrasive element to be easily swapped without disassembling the entire tool, and the compact body design enables access to hard-to-reach areas without requiring tool disassembly.
Solution Approach 2:
The tool transitions from traditional bulkier designs to a compact, low-profile configuration that can fit into confined spaces and reach into recessed areas, effectively changing the spatial dimension of tool accessibility.
2Productivity
If traditional abrasive components are used, then cleaning is effective, but they wear out quickly and are cumbersome to replace
Solution Approach 1:
The abrasive element is designed as a separate, replaceable component that can be quickly swapped out when worn, eliminating the need to disassemble the entire tool for maintenance. This modular approach reduces maintenance time while maintaining cleaning effectiveness.
Solution Approach 2:
The abrasive element is designed as a consumable component that can be easily replaced when worn, similar to disposable items. This allows for quick replacement without special assembly tools or complex procedures, reducing maintenance time and costs.
3Reliability
If specialized rust and contaminant removal equipment is used, then cleaning performance is good, but equipment costs and versatility are limited
Solution Approach 1:
The tool is designed with a universal interface that can be used with various power tools (drills, impact drivers, oscillating tools), and the abrasive element can be replaced with different types to handle various cleaning applications. This multi-functionality increases versatility without sacrificing cleaning performance.
Solution Approach 2:
The tool's versatility is achieved through parameter changes in the abrasive element (different materials, grits, and configurations) that can be selected based on the specific cleaning application, allowing the same basic tool to perform effectively across multiple uses.
4Strength
If rigid cleaning tools are used, then structural strength is good, but they cannot reach into recessed or irregularly shaped areas
Solution Approach 1:
The tool body is designed with a low-profile, compact configuration that reduces the overall dimensions and allows the tool to fit into recessed areas and irregularly shaped spaces while maintaining sufficient structural strength through optimized geometry.
Solution Approach 2:
The tool incorporates a flexible abrasive element that can conform to irregular surfaces and recessed areas, allowing the tool to adapt to different geometries while the power tool interface body maintains structural strength.
Data Source
AI summary
A slotted retention tool for retaining an abrasive material for use with a power-driven tool that is compact and adaptable for use in confined or hard-to-reach areas, while also allowing for quick and easy replacement of worn abrasive components is provided. The slotted retention tool can include a slot at a first end where the slot can be configured to retain an abrasive material for use during operation of the slotted retention tool. The slot can include a transitional surface configured to minimize sharp edges that can contribute to premature tearing or degradation of the abrasive material during insertion and use. The slotted retention tool can also include a drive portion at a second end configured to be received by a power-driven tool. A method of using a slotted retention tool for retaining an abrasive material is also provided.