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Integrated Bio-Protection Solution for High Voltage Disconnect Switches in Indonesia: Combating Mold & Insect Infestation

Vziman
4yrs + staff 10000+m² US$0+ China

1. Project Background

Indonesia's equatorial climate (humidity >80%, temperature 25-32°C) imposes extreme challenges on electrical infrastructure, especially ​High voltage Disconnect Switches​ used in transmission networks. Key risks include:

1.1 ​Biological Erosion

  • Mold: Degrades insulation in ​High voltage Disconnect Switch​ housings, increasing leakage currents.
  • Insects: Termites/booklice infiltrate gaps ≥0.2mm in switch enclosures, causing mechanical jams or cable damage.

1.2 ​Infrastructure Demand
National projects (e.g., Jakarta-Surabaya High-Speed Rail) require ultra-reliable power systems. Traditional ​High voltage Disconnect Switch​ gear in Sumatra/Kalimantan shows 40% higher failure rates, escalating maintenance costs.

2. Solution

2.1 Material Innovation for ​High voltage Disconnect Switch​

Component

Material Solution

Protection Mechanism

Encapsulated Pole Units

BASF Ultramid® PA/PBT

Anti-fungal agents inhibit mold on ​High voltage Disconnect Switch​ insulation; high-density structure blocks insects

Sealing Structure

Silicone filler + Metal mesh

≤0.1mm gap precision prevents insect entry into ​High voltage Disconnect Switch​ cabinets

Surface Coating

Nano hydrophobic layer

Reduces moisture retention on ​High voltage Disconnect Switch​ surfaces, disrupting mold habitat

2.2 Structural Protection for ​High voltage Disconnect Switch​

  • Moisture-Control Ventilation:
    Humidity sensors (>65% RH trigger) maintain internal humidity ≤50% in ​High voltage Disconnect Switch​ cabinets, preventing condensation-induced failures.
  • Modular Design:
    Snap-fit components enable rapid cleaning of insect remains/mold in ​High voltage Disconnect Switch, cutting downtime by 60% .

2.3 Environmental Adaptation of ​High voltage Disconnect Switch​

  • Coastal Areas: 316L stainless steel frames + chrome plating boost salt corrosion resistance by 60% for coastal ​High voltage Disconnect Switch​ installations .
  • Thermal Management: Enhanced heat sinks limit temperature rise to ≤40K at 50°C ambient, critical for ​High voltage Disconnect Switch​ stability .

2.4 Intelligent ​High voltage Disconnect Switch​ Monitoring

  • Biosensors track real-time mold/insect activity inside switches, syncing data to cloud platforms.
  • Predictive maintenance auto-generates work orders (e.g., coating replenishment) for ​High voltage Disconnect Switch​ units .

3. Achieved Results

3.1 ​Performance Enhancement

  • Mold growth ↓90%; insulation resistance >1000 MΩ (vs. 200 MΩ in traditional ​High voltage Disconnect Switch).
  • Insect-induced failures ↓ from 5.3 to 0.2/year/unit.

3.2 ​Lifecycle Cost Optimization

Indicator

Traditional ​High voltage Disconnect Switch​

This Solution

Maintenance

4 times/year

1 time/year

Lifespan

8-10 years

15+ years

Recyclability

<30% (Thermoset)

>85% (Thermoplastic)

3.3 ​Local Industry Impact

  • Localized production in Gresik Economic Zone (East Java) for ​High voltage Disconnect Switch​ assembly.
  • Adopted into PLN’s Tropical High-Voltage Equipment Standards.
06/03/2025
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