Differentiated scenario adaptation, flexible support for multi role and multi production line requirements
The system supports user-defined information display hierarchy, data monitoring indicators, and 3D display effects. It can provide differentiated visual interfaces according to the needs of different roles such as operators, technicians, and managers. Built in templates for various industry solutions such as grinding and milling composite production lines, turning and milling production lines, and electrical machining lines, which can quickly adapt to different types of automated production lines without the need for zero development, flexible deployment, and convenient expansion
The precipitation of data throughout the entire process supports predictive maintenance and ensures stable operation of the production line
The digital twin model runs through the entire process of production line design, manufacturing, testing, operation, maintenance, and scrapping, accumulating data at each stage to achieve traceability of production history, full mastery of current status, and predictability of the future. By relying on real-time operational data and health profiles of equipment, we can accurately predict potential equipment failures, support remote status monitoring and maintenance guidance, achieve a transition from "post maintenance" to "predictive maintenance", effectively avoid unplanned downtime risks, and ensure the continuous, safe, and stable operation of production lines
Virtual real integration closed-loop control, achieving continuous optimization of process and quality
The system integrates multiple sources of data such as real-time CNC status, process parameters, sensor data, and three-dimensional detection results. It uses virtual real data fusion algorithms to achieve dynamic model iteration, and is paired with an AI decision engine to achieve automatic optimization of process parameters. Real time collection of key parameters and product quality status during the processing, and early warning of abnormal risks; After processing is completed, process review and optimization are carried out based on the entire process data. The generated optimization instructions can be directly fed back to the physical production line, forming a closed-loop control of "perception analysis decision execution", achieving a reduction in defect rate and improving quality traceability efficiency
Real time data-driven production line optimization, maximizing the utilization of production line resources
Through IoT sensors PLC、 Robots, detection systems, and other terminals transmit real-time and continuous status data of physical entities such as temperature, pressure, position, and performance parameters to the digital twin, ensuring dynamic synchronization between the virtual model and the physical world. Relying on real-time data-driven, the system can accurately identify production bottlenecks, optimize process rhythm and scheduling plans, reduce equipment idle and process waiting; Simultaneously supporting dynamic scheduling and adjustment based on real-time data, quickly responding to production changes such as insertion and modification of orders, maximizing the utilization of production line resources, and improving equipment utilization
1: 1. High precision digital twin modeling, achieving full transparency and visualization of production line status
Building a 1:1 high-precision digital twin model of a physical production line not only replicates the geometric shape of equipment and production lines, but also covers the full dimensional mapping of physical attributes, operating rules, status data, and environmental factors. Visualize the full dimensional core data of production line materials, storage locations, equipment, processing, quality, orders, faults, etc. through various forms such as 3D models, charts, videos, etc., to achieve full transparency, monitoring, and traceability of production line status, providing global decision-making basis for management