Multi-Angle Automated Polishing System for Precision Surface Finish
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Solution Overview
Problem
Current polishing methods, especially in the metal surface polishing industry, face challenges such as high equipment costs, complex operations, low precision, and adverse working conditions, which hinder widespread adoption and result in suboptimal surface smoothness and worker health issues.
Innovation Solution
A multi-angle automated polishing system comprising a workbench with a holding unit that allows for transverse, translational, and rotary movement, along with a polishing unit driven by a control unit, enabling precise and automated polishing across multiple angles without manual intervention, thus reducing labor intensity and health risks.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Manufacturing precision
If manual polishing methods are used, then equipment cost is low and operation is simple, but polishing quality stability is poor and worker health is endangered
Solution Approach 1:
The system enables automated self-service polishing through computer control of multiple driving mechanisms (transverse, longitudinal, rotary drives) that automatically position and move the polishing head relative to the workpiece, eliminating manual intervention while maintaining consistent polishing quality
Solution Approach 2:
The polishing system integrates multiple functions into a single automated platform including transverse movement, longitudinal movement, rotary movement, and workpiece rotation capabilities, allowing one system to handle various polishing requirements that would otherwise require separate manual operations
2Manufacturing precision
If automated polishing systems are introduced, then polishing precision and worker safety improve, but equipment investment cost increases
Solution Approach 1:
The automated polishing system is divided into independent functional modules including transverse driving mechanism, longitudinal driving mechanism, rotary driving mechanism, and control system, allowing for staged implementation and reduced initial investment compared to fully integrated automated systems
3Productivity
If batch polishing method is used, then labor intensity is reduced and efficiency is high, but surface smoothness is relatively low
Solution Approach 1:
The system dynamically adjusts polishing parameters during operation, including variable speed rotation of the polishing head and workpiece, and dynamic positioning through computer-controlled driving mechanisms, enabling high efficiency batch processing while maintaining superior surface smoothness through real-time parameter optimization
4Object-affected harmful factors
If manual polishing is used for shells, then flexibility is maintained, but worker health is endangered due to dust and vibration
Solution Approach 1:
The system completely automates the polishing process with computer control over all movement and rotation mechanisms, eliminating worker exposure to dust and vibration while maintaining the flexibility to process various shell geometries through programmable motion paths
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 achieves high precision and efficiency in polishing with reduced labor and equipment costs, protecting worker health by automating the polishing process and improving surface smoothness across various shapes and sizes of workpieces.
Implementation Method 1
a polishing unit, provided with a polishing component and a polishing drive configured to drive the polishing component in operation
Data Source
AI summary
A multi-angle automated polishing system comprises a workbench, a holding unit, a polishing unit, and a control unit. The holding unit comprises a holding component for holding an object, a transverse drive configured to drive the holding component to move transversely along the plane of the workbench, a translational drive configured to drive the holding component to move translationally along the plane of the workbench, and a rotary drive configured to drive the holding component to rotate transversely along the plane of the workbench. The holding unit further comprises a rotating unit and a rotating drive configured to drive the rotating unit to rotate. The polishing unit comprises a polishing component and a polishing drive configured to drive the polishing unit in operation. The control unit is connected to the transverse drive, the rotary drive, the rotating drive, and the polishing drive.