Bid Document and Quotation Preparation for Iron and Steel Smelting and Continuous Casting: Workflow Orchestration

Data sources for this category include real-time collected data of molten iron and scrap steel, L2 process control data, laboratory composition test

What Data for This Category Looks Like

Data sources for this category include real-time collected data of molten iron and scrap steel, L2 process control data, laboratory composition test reports, MES production scheduling data, energy medium system operation records, and equipment status monitoring data. Data update frequencies cover per heat, real-time, and shift cycles. Daily associated documents include heat plans, batching lists, converter smelting records, composition reports, continuous casting process records, and slab determination sheets. Each document contains fields such as heat number, cast number, composition parameters, process temperature, and equipment operating duration. Units include temperature, weight, time, composition proportion, and more. Some documents also include special data such as furnace temperature fluctuation curves and pulling speed parameters.

What Constraints These Characteristics Impose on Workflow Orchestration

The high-frequency real-time data and multi-source dispersed nature of this category require workflows to support per-heat triggering or real-time data pulling. This avoids fixed-period scheduling that does not align with production rhythms. The strongly coupled business logic between heats and casts requires binding core variables parameters within the workflow. This ensures accurate data association across all links and prevents cross-heat data confusion. The field differences across multiple professional documents require configuring data standardization nodes in the workflow. This unifies the formats of composition, temperature, and process parameters. The high risk of error consequences requires adding a key parameter verification link before quotation generation. This blocks abnormal data from entering the bid document preparation process and avoids losses such as heat downgrading or scrapping.

This document is written based on the workflow orchestration function of FastGPT v4.17.0.

How to Set Configurations

Configuration ItemRecommended SettingRationale
Trigger ModeTriggered by heat plan completion signalMatches production rhythm advancing per heat, avoids invalid scheduling
Core Variable BindingHeat number, cast number, molten iron composition, target steel gradeBind variables parameters to ensure accurate data association across all links, aligns with heat-cast coupling characteristics
Data Pull Waiting Duration600 secondsAdapts to collection delays of multi-source data, prevents process interruption
Parameter Verification Node ThresholdCalibrated based on actual measurementsAdapts to composition and temperature requirements of different steel grades, avoids poor adaptability of fixed thresholds
Result Output ConfigurationOnly output final bid documents and quotation sheetsMeets requirements for displaying only final results, hides intermediate processing steps
Debug Node SettingsSupport manual termination and breakpoint resumptionAdapts to fault troubleshooting for complex processes, resolves issues where debugging cannot be stopped

Three Common Misconfigurations

  • Phenomenon: The debug node cannot be manually terminated after startup, and the process becomes stuck. Cause: Manual termination permission for the debug node is not configured, or the trigger mode is bound to an uninterruptible real-time signal.
  • Phenomenon: Generated bid documents lack key composition data, with empty fields. Cause: The heat number or cast number in the variables parameters is not bound, leading to failure to match records for the corresponding heat during data pulling.
  • Phenomenon: The workflow only calls a single model to complete the entire process, and cannot process data in steps. Cause: Nodes are not split into multiple independent nodeId for data pulling, parameter verification, and document generation, and the entire process is incorrectly bound to a single model node.

How to Confirm Proper Configuration

  • Trigger test: Manually simulate the heat plan completion signal, observe whether the workflow starts as expected, and verify that the trigger logic matches production rhythms.
  • Variable verification: Check whether the variables parameters are bound to core fields such as heat number and cast number, confirm that data across all links can correctly associate records for the corresponding heat.
  • Node split check: Confirm that the workflow has split independent nodes for data pulling, parameter verification, document generation, and other tasks, to support step-by-step debugging and retries.
  • Output verification: After triggering the process, confirm that only the final bid document and quotation results are displayed, with details of intermediate processing steps hidden.

The values given are common starting points and should be measured against the reader's own samples.