Particulate Filling Layout for High-Accuracy Dual-Section Dosing
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Solution Overview
Problem
Conventional particulate matter filling devices face challenges in improving performance without increasing facility size, and measurement accuracy is compromised due to frequent stops and starts of the turret lathe as the number of measuring vessels increases.
Innovation Solution
A method and device with a single feeding section and two filling sections, alternately disposed on either side, perform measuring and filling operations without increasing the number of measuring vessels, ensuring high-quality measurement accuracy by leveling particulate matter in a compressed state.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If the number of measuring vessels is increased to improve facility performance, then the filling capacity is improved, but the size of the turret lathe becomes excessively large
Solution Approach 1:
The system is divided into multiple independent measuring vessels (first measuring vessel, second measuring vessel, third measuring vessel) that can be selectively used. Instead of having all vessels rotate simultaneously on a large turret, the vessels are segmented and can be positioned independently, allowing the turret lathe to remain compact while still providing multiple measuring stations.
Solution Approach 2:
The measuring vessels are arranged in a vertical stack configuration rather than a horizontal circular arrangement. The first, second, and third measuring vessels are positioned at different heights (upper, middle, lower positions), transforming the spatial arrangement from a two-dimensional circular plane to a three-dimensional vertical structure. This allows multiple measuring vessels to be accommodated without increasing the horizontal footprint of the turret lathe.
2Productivity
If the number of measuring vessels is increased to improve facility performance, then the filling capacity is improved, but the measurement accuracy deteriorates due to frequent stops and starts
Solution Approach 1:
The system enables continuous operation by having multiple measuring vessels ready at different positions. While one vessel is being filled and measured, another vessel can simultaneously perform the filling operation. The turret lathe rotates continuously without frequent stops because the vessels are pre-positioned in a vertical arrangement, allowing seamless transition between measuring and filling operations without interrupting the rotation.
Solution Approach 2:
The measuring vessels are pre-positioned in specific locations (upper, middle, lower positions) before the filling operation begins. This preliminary positioning allows the system to execute the filling cycle without intermediate stops to reposition vessels, maintaining continuous rotation and consistent measurement conditions throughout the operation.
3Productivity
If the number of measuring vessels is increased to improve facility performance, then the filling capacity is improved, but the device complexity increases
Solution Approach 1:
Multiple measuring vessels share the same structural design and functional characteristics. Each vessel (first, second, third measuring vessels) serves the same purpose of measuring particulate matter volume, and they can be interchangeably positioned in the upper, middle, or lower locations. This universality reduces design complexity compared to having specialized vessels for each position, as the same component design is replicated vertically.
Data Source
AI summary
Provided is a particulate matter filling method for measuring the volume of particulate matter and filling the particulate matter into a container, the method being able to improve the performance of a facility while maintaining high quality measurement accuracy. This method includes: moving a first particulate matter fed through a feeding section to a first measuring section; moving a second particulate matter fed through the feeding section to a second measuring section and measuring the first particulate matter; moving the first particulate matter to a first filling section and measuring the second particulate matter; filling the first particulate matter, and then moving the second particulate matter to a second filling section; and filling the second particulate matter.