Material Processing Metal & Cable

Optimization of Metal Cable Manufacturing Process Through Advanced Automation and Energy Recovery Systems

Update: 2026-02-07

Problem Definition

Industry Challenges

  • 01 High energy consumption in wire drawing and stranding operations due to friction and deformation forces
  • 02 Inconsistent cable quality from manual tension control and variable process parameters
  • 03 Limited production flexibility to handle diverse cable specifications and small batch orders
  • 04 Significant material waste from suboptimal cutting and spooling operations

Specific Pain Points

  • Energy costs account for 25-30% of total production expenses in wire drawing stages
  • Tension variations exceeding ±5% cause diameter inconsistencies and reduced mechanical properties
  • Manual setup changes between production runs result in 45-60 minutes of downtime per changeover
  • Material yield losses of 3-5% from imprecise cutting and end-of-spool waste

Current State Analysis

"Existing wire drawing machines operate at fixed speeds without adaptive control, leading to energy inefficiencies during load variations Tension control relies on mechanical dancers and manual adjustments, resulting in periodic quality deviations Production scheduling lacks real-time monitoring, causing suboptimal machine utilization rates of 65-75% Cutting systems use fixed-length programming without compensation for material elasticity, creating length inaccuracies"

Performance Impact

Tension Control Accuracy
±1.5% variation maintained across production speed range
Energy Efficiency Increase
≥18% reduction in specific energy consumption (kWh/ton)
Material Yield Improvement
≥2.5% reduction in material waste through precision cutting
Production Flexibility Improvement
Setup time reduction of 70% (from 45 to 13.5 minutes)
Overall Equipment Effectiveness (Oee)
Increase from 65% to ≥82% through reduced downtime
Cutting System Length Accuracy ±0.1% of programmed length (e.g., ±1mm at 1000mm)
Scada System Data Sampling Rate 100ms intervals for critical process parameters
Vfd Regenerative Braking Efficiency ≥85% energy recovery during deceleration phases
Tension Control System Response Time <100ms for step changes in line speed
System Mtbf (Mean Time Between Failures) ≥50,000 hours for critical components
Engineering Verification

This solution has been validated by Atlamech Engineering based on the following standards:

View Details

Technical Scope

  • Implementation of variable frequency drives (VFDs) with regenerative braking on wire drawing machines
  • Installation of closed-loop tension control systems with load cells and servo-controlled capstans
  • Integration of PLC-based production monitoring with SCADA for real-time process visualization
  • Deployment of precision cutting systems with laser measurement and adaptive length compensation

Compliance Standards

IEC 61800 (Adjustable speed electrical power drive systems)
ISO 9001 (Quality management systems)
ISO 50001 (Energy management systems)
IEC 61508 (Functional safety of electrical/electronic/programmable electronic safety-related systems)
CE Marking (European conformity for machinery safety)

Implementation Strategy

Week 1-2: Comprehensive site survey and energy audit of existing wire drawing and stranding lines. Week 3-4: Detailed engineering design including VFD sizing calculations, tension control system specifications, and cutting system integration plans. Week 5-8: Installation of VFDs with regenerative braking units on primary wire drawing machines, including electrical panel modifications and safety interlocks. Week 9-12: Commissioning of closed-loop tension control systems with load cell calibration and PID tuning. Week 13-14: Integration of PLC/SCADA system with existing production equipment, including HMI configuration and alarm management setup. Week 15-16: Training of operations and maintenance personnel on new systems, followed by performance validation testing.
Key Deliverables
Energy monitoring dashboard with real-time consumption tracking per machine
Automated tension control system maintaining ±1.5% variation across production runs
Production scheduling software with OEE (Overall Equipment Effectiveness) tracking
Precision cutting system achieving length accuracy of ±0.1% with material savings

Consultation Notes

Critical Engineering Considerations

VFD Sizing and Selection: Proper VFD sizing requires detailed torque-speed analysis of wire drawing machines. Calculate required torque using T = F × r, where F is drawing force (typically 5-20kN for medium cables) and r is capstan radius. Include 15-20% safety margin for peak loads during acceleration.

Tension Control System Design: Implement redundant tension measurement using both load cells and dancer position feedback. For safety-critical applications, maintain mechanical dancer as backup system. PID tuning should consider material elasticity (Young's modulus: 110-130 GPa for copper, 69-79 GPa for aluminum).

Energy Recovery Calculations: Regenerative braking energy recovery depends on machine inertia and deceleration rate. Calculate recoverable energy using E = 0.5 × I × ω² × η, where I is system inertia (typically 2-5 kg·m² for medium wire drawers), ω is angular velocity, and η is VFD efficiency (85-92%).

Maintenance Intervals:

  • VFD cooling systems: Clean filters every 3 months
  • Tension load cells: Calibration check every 6 months
  • Cutting system blades: Replace every 50,000 cycles or when wear exceeds 0.2mm
  • Safety system verification: Functional test of emergency stops and interlocks monthly

Safety Integration: For SIL2 applications, implement hardware-based safety relays independent of PLC control. Emergency stop circuits must be hard-wired with Category 3/PLd safety according to ISO 13849-1. Never rely solely on VFD software functions for critical safety functions.

Infrastructure Taxonomy

Industrial SCADA software with OPC UA connectivity
Typical Application Patterns: Medium to large-scale copper/aluminum wire drawing facilities with annual production >10,000 tons Multi-strand cable manufacturing plants requiring consistent tension across multiple spools Specialty cable producers handling frequent product changeovers and small batch sizes Energy-intensive operations where electricity costs exceed 25% of production expenses

Engineering Relation Summary

Technical Components

PROFINET/Ethernet IP Communication Protocol, SCADA Software, Laser Measurement Device

Engineering Constraints

Drawing Force (5-20 kN), Response Time (<100 ms)

Core Optimization Logic

Variable Frequency Drive Control Logic, PID Tuning Algorithm, Adaptive Length Compensation Algorithm

Implementation Evidence Summary

Project Brief

Optimization of Metal Cable Manufacturing Process Through Advanced Automation and Energy Recovery Systems

System Scale
Wire drawing machines, stranding lines, and cutting systems with PLC/SCADA integration across production facility.
Operating Conditions
Industrial manufacturing environment with continuous production runs and variable cable specifications.
Implementation Constraints
Compliance with IEC 61800, ISO 9001, ISO 50001, IEC 61508, and CE Marking standards; integration with existing equipment.

Technical Knowledge Cluster

Advanced Automation and Energy Recovery Systems for Metal Cable Manufacturing Optimization

This cluster covers engineering solutions for optimizing metal cable manufacturing through automation, energy efficiency, and process control, targeting technical professionals seeking implementation strategies and performance improvements.

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