Energy & Power Wind Power Generation

Coordinated Control System for Wind Turbine Pitch, Yaw, and Grid Integration

Update: 2026-01-09

Problem Definition

Engineering Verification

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

View Details

Technical Scope

Compliance Standards

Implementation Strategy

Key Deliverables

Control system specification, PLC/SCADA configuration, grid code compliance documentation, and commissioning procedures

Consultation Notes

  • Implement IEC 61400-25 compliant communication protocols
  • Consider redundancy for critical control loops
  • Coordinate pitch and yaw response times to minimize mechanical stress
  • Validate grid code compliance across entire power range
  • Include predictive maintenance algorithms for pitch bearings

Infrastructure Taxonomy

Industrial PCs
Power Quality Analyzers
Grid-Tie Inverters
Servo Drives
Absolute Encoders
Typical Application Patterns: Pitch control during wind gusts Yaw optimization for wind direction changes Reactive power compensation for grid support Low-voltage ride-through coordination

Engineering Relation Summary

Technical Components

master controller, PLC/SCADA configuration, pitch control subsystem

Engineering Constraints

-30°C to +50°C operating temperature, IEC 61400-1 Class I/II/III wind conditions

Core Optimization Logic

hierarchical control architecture, Control Logic

Implementation Evidence Summary

Project Brief

Coordinated Control System for Wind Turbine Pitch, Yaw, and Grid Integration Implementation

System Scale
Multiple wind turbines with individual power ratings between 1500-12000 kW, operating at 690-33000 V.
Operating Conditions
IEC 61400-1 Class I/II/III wind conditions, operating temperature range -30°C to +50°C.
Implementation Constraints
Grid code compliance requirements, mechanical stress limitations on pitch and yaw systems, real-time response requirements.

Technical Knowledge Cluster

Wind Power Generation Systems & Grid Integration

Technical analysis of wind power generation systems covering aerodynamic design, power electronics architecture, and grid integration challenges, with reference to IEC, IEEE, and ENTSO-E standards for structural and electrical compliance.

Wind Turbine Aerodynamic Design & IEC 61400 Standards
Analysis of blade aerodynamics, power coefficient optimization, and compliance with IEC 61400-1 structural design requirements.
Power Electronics for Variable-Speed Wind Turbines
Design of doubly-fed induction generator (DFIG) and full-converter systems with grid code compliance for voltage/frequency regulation.
Contact Us

Technical Assistant

FOCUSED ON VFD / MOTOR / PUMP

Engineering Assistance

Need help selecting the right equipment? Our AI assistant can guide you through technical specifications for VFDs, Motors, and Pumps.

Global Connect

AI Translation (en ↔ zh)

Guest Mode: History not saved. Messages limited.

Type in your language.
We translate instantly.