Automated Forging Line Control for Hot Material Transfer
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Solution Overview
Problem
Traditional hot forging and pressing production systems rely heavily on manual labor, are inefficient, and prone to errors due to the need for human judgment and physical handling of high-temperature materials, leading to safety risks and increased production costs.
Innovation Solution
A control platform and automated system that monitors and controls temperature, pressure, and mold operations, using a delivering device to transport materials between hot melt and forging devices, eliminating the need for manual handling and enabling automated processing of multiple types of products.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If manual labor is used to handle and operate forging equipment, then flexibility and adaptability are maintained, but production efficiency is low and labor costs are high
Solution Approach 1:
The system enables self-service through automated material delivery where the delivering device autonomously transports heated blanks from the heating furnace to the forging press without human intervention. The control system automatically coordinates between heating and forging operations, allowing the production line to service itself and eliminating dependency on manual labor for material handling.
Solution Approach 2:
Manual mechanical operations are replaced with automated systems including the delivering device with clamping mechanisms for material transport, and automated control systems that replace human judgment and operation. The mechanical system now includes automated positioning and coordination between heating and forging equipment, substituting human physical labor and decision-making.
2Productivity
If multiple devices are coordinated manually, then operational flexibility is maintained, but coordination efficiency is poor and errors increase
Solution Approach 1:
The control systems of the heating furnace and forging press are merged into a unified automated control platform. The delivering device integrates material handling functions between these devices, creating a coordinated system where temperature monitoring, material delivery timing, and forging operations are synchronized through integrated control logic, eliminating the need for separate manual coordination.
Solution Approach 2:
The system implements feedback mechanisms where the control system monitors the heating process and material temperature, then uses this information to automatically trigger the delivering device at the appropriate time. The coordination between heating and forging is optimized through feedback loops that adjust delivery timing based on actual material temperature and processing state, improving coordination efficiency.
3Reliability
If workers manually monitor and operate high-temperature materials, then safety judgment is maintained, but safety risks from burns and material handling remain
Solution Approach 1:
The delivering device serves as an intermediary between the heating furnace and forging press, automatically handling the transfer of high-temperature materials. This intermediary mechanism includes temperature-resistant clamping and transport capabilities, eliminating direct human contact with hot materials while maintaining safe material flow through the production line.
Solution Approach 2:
Manual handling of high-temperature materials is replaced with automated mechanical systems including the delivering device with specialized grippers and transport mechanisms. The automated system performs all material handling operations in high-temperature zones, substituting human operators with temperature-resistant mechanical components that eliminate burn risks.
4Measurement precision
If experienced workers perform visual judgment of material temperature, then operational flexibility is maintained, but judgment accuracy is low and errors occur
Solution Approach 1:
Human visual judgment is replaced with automated temperature monitoring systems including sensors and control systems that objectively measure material temperature. The system substitutes human sensory capabilities with precise electronic measurement devices that provide accurate, quantifiable temperature data for process control.
Solution Approach 2:
The automated monitoring system provides continuous feedback on material temperature to the control system, enabling precise measurement and automatic adjustment of processing parameters. This feedback loop ensures accurate temperature monitoring throughout the heating and forging process, eliminating the imprecision of visual estimation.
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 significantly improves production efficiency by reducing labor costs, enhancing safety, and ensuring consistent product quality through automated temperature and pressure control, while minimizing waste and maintaining equipment longevity.
Implementation Method 1
a hot melt device, heating at least a material so that the material is heated to a proper temperature
Implementation Method 2
a forging device, adapted for pressing the heated material based on the control of the control platform so as for forming the material through forging and pressing
Data Source
AI summary
The present invention provides a forging and pressing production management method, comprising the steps of:A. acquiring at least one characteristic of a fed material;B. correspondingly selecting, according to the characteristic of the material, at least one of the temperature, the pressure or a mold from among operating factors of the forging and pressing process;C. transporting the material according to the selection result; andD. processing the material until a finished product is produced.The present invention enables at least one material to be formed by hot melt and forging and pressing by itself without human operation, thereby completing the mass production of the material. Operating factors such as the pressure, temperature and mold required for formation are taken into account, and the identification requirements for the material are reduced, thereby realizing large-scale production.