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TextilePV-DG SynchronizationCompleted Jun 2025

PLC-Based Solar-DG Synchronization for Nobel Hoisery

Automated PLC-based Solar-DG synchronization system for Nobel Hoisery, integrating solar PV, WAPDA grid and diesel generator with zero-export mode and up to 60% fuel savings.

Industry

Textile

Location

Pakistan

Solution

PV-DG Synchronization

Primary Outcome

Reduced manual intervention

AI-Ready Summary

Answer-first summary for technical buyers, consultants, and AI-assisted research workflows.

  • What it is: PLC-Based Solar-DG Synchronization for Nobel Hoisery is an pv-dg synchronization deployment for textile operations.
  • Who it is for: Industrial teams that need reliable power automation, SCADA visibility, and measurable operating gains.
  • Problem solved: Nobel Hoisery needed automatic power source selection between solar PV, two WAPDA grid feeds, and a diesel generator, without manual intervention or risk of unstable voltage and frequency during switchovers.
  • How it works: Deployed a PLC-based Solar-DG Synchronization Controller that prioritizes solar energy while managing seamless transitions to grid or generator power. During grid outages, the controller runs solar and DG in parallel, sharing load dynamically to minimize diesel consumption, and supports zero-export mode to prevent reverse power flow when net metering is unavailable.
  • Results delivered: Up to 60% fuel savings through optimized solar-DG integration, continuous power supply via automated source switching, and 24/7 remote monitoring for maximum efficiency.
  • How to engage: Contact Automatrix Engineering via WhatsApp, phone, or quote form for a similar architecture review.

Client Challenge

Nobel Hoisery needed automatic power source selection between solar PV, two WAPDA grid feeds, and a diesel generator, without manual intervention or risk of unstable voltage and frequency during switchovers.

Existing Power / Automation Environment

PLC-based Solar-DG synchronization controller integrating solar PV, WAPDA grid, and diesel generator for a hosiery manufacturing facility.

Scope of Work

PLC-based Solar-DG synchronization controller integrating solar PV, WAPDA grid, and diesel generator for a hosiery manufacturing facility.

Solution Architecture

Deployed a PLC-based Solar-DG Synchronization Controller that prioritizes solar energy while managing seamless transitions to grid or generator power. During grid outages, the controller runs solar and DG in parallel, sharing load dynamically to minimize diesel consumption, and supports zero-export mode to prevent reverse power flow when net metering is unavailable.

Control Logic / Operational Modes

Installed a touchscreen HMI for local control plus remote access for real-time monitoring, configuration, and instant fault alerts. The system continuously tracks solar PV, DG, and grid performance and can remotely start or stop equipment as needed.

Safety and Protection Features

Protection and compliance controls included reverse power protection, configurable alarms, and controlled switching logic based on site conditions.

Components, Technologies, and Protocols

Components Used

  • PLC/HMI
  • Zero Export Controller
  • Generator Synchronization

Technologies

PLC/HMIZero Export ControllerGenerator Synchronization

Protocols / Interfaces

  • Modbus
  • PLC-HMI integration

Results and Measurable Outcomes

Up to 60% fuel savings through optimized solar-DG integration, continuous power supply via automated source switching, and 24/7 remote monitoring for maximum efficiency.

  • Reduced manual intervention
  • Better export compliance
  • Improved power reliability

Visuals and Diagram Placeholders

Electrical SLD snapshots, HMI/SCADA views, panel documentation, and commissioning records.

PLC-Based Solar-DG Synchronization for Nobel Hoisery visual 1

Project FAQ

What was the primary challenge in PLC-Based Solar-DG Synchronization for Nobel Hoisery?

Nobel Hoisery needed automatic power source selection between solar PV, two WAPDA grid feeds, and a diesel generator, without manual intervention or risk of unstable voltage and frequency during switchovers.

How was the solution implemented?

Installed a touchscreen HMI for local control plus remote access for real-time monitoring, configuration, and instant fault alerts. The system continuously tracks solar PV, DG, and grid performance and can remotely start or stop equipment as needed.

What outcomes were delivered?

Reduced manual intervention, Better export compliance, Improved power reliability

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