Integration and interaction mechanisms of MES with fluid application dispensing equipment
In precision manufacturing sectors such as electronics, automotive parts, and medical devices, fluid application equipment like dispensing machines, coating machines, and potting machines are crucial for achieving core processes such as product sealing, fixing, and insulation. With the deepening of intelligent manufacturing and Industry 4.0, MES (Manufacturing Execution System), situated in the middle layer of enterprise information system architecture, has become a key bridge connecting ERP/PLM above and field devices and automation systems (PLCs, dispensing machines, testing equipment, etc.) below . Through deep integration and efficient interaction with fluid equipment, MES enables transparent control, precise scheduling, and full-process traceability of the production process, significantly improving production efficiency and quality control.
Second Intelligent Dispensing Machines, Dispensing Machines, and Coating Machines can all be customized with MES functions, and have successfully completed MES system integration and deployment with large enterprises such as BYD. For more technical details,welcome to contact our technical support department.
Ι.Core Functions and Interaction Processes of the MES System
MES, or Manufacturing Execution System, aims to digitize, make traceable, controllable, and optimizable the production process . Its functions cover the entire production chain, forming a closed loop based on the logic of “planning-execution-monitoring-analysis-optimization,” providing comprehensive support for fluid equipment operations.
(I) Core Functional Modules
1.Production Planning and Scheduling : As the “command center” of the system, it receives macro orders from ERP, and combines factors such as fluid equipment capacity, personnel skills, material availability, and process constraints to break down orders into process-level tasks, generate accurate scheduling plans, and issue them to the corresponding equipment. It also supports dynamic rescheduling in abnormal scenarios such as emergency order insertion and equipment failure to avoid resource idleness or task conflicts.
2.Resource Management : Overall control of workshop production elements, including fluid equipment ledger (model, parameters, maintenance cycle), personnel skills and shifts, material inventory and circulation, tooling and fixture life, etc., to ensure that equipment, materials and personnel are configured as needed, and to avoid problems such as “work stoppage due to material shortage” and “operation of equipment with defects” in advance.
3.Production Execution and Process Control : Real-time tracking of fluid equipment operation progress, supporting operator reporting and input (completed quantity, qualified quantity, working hours), displaying standard operating procedures (SOPs) through workstation terminals, and implementing process error prevention—if equipment parameter settings are abnormal or material code scanning is incorrect, the system will automatically alarm and prohibit operation, while tracking the flow of work-in-process through barcode/RFID technology to achieve full-process traceability.
4.Quality Management : It runs through the entire production process, presets standards for incoming material inspection, process inspection, and finished product inspection, automatically collects operating parameters and inspection data of fluid equipment, analyzes data fluctuation trends through statistical process control (SPC), provides early warning of quality risks, initiates closed-loop handling processes (rework, scrap, and acceptance with concessions) for non-conforming products, and accurately traces the root cause of the problem.
II . System Integration Architecture of MES with Fluid Equipment such as Dispensing Machines
1. Typical system hierarchy
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