​​I. Problem Background​Electrical cables, as the core carriers for energy and signal transmission, have their electrical characteristics (conductivity, insulation, voltage withstand capability) and physical characteristics (flexibility, flame retardancy, mechanical strength) directly determining system stability and service life. Especially in harsh operating conditions such as high temperature, humidity, chemical corrosion, or strong electromagnetic interference, insufficient performance can e

​​1. Problem Background​With increasingly stringent global environmental regulations (e.g., EU RoHS, REACH directives) and the advancement of carbon neutrality goals, the environmental footprint throughout the entire lifecycle of electrical cables has become a core procurement criterion for users. Traditional cables face challenges including heavy metal pollution, non-biodegradable material overuse, and high-energy-consumption production, necessitating systemic green transformation.​2. End-to-En

​​​(I) Problem Background​Ensuring the long-term safe, stable, and efficient operation of electrical cable systems is crucial for guaranteeing the continuity of production, daily life, and facility operations. Proper selection is the cornerstone of system reliability, while consistent and effective maintenance management is the core safeguard against faults, extending cable lifespan, and preventing economic losses and safety incidents. Neglecting selection principles or insufficient maintenance

​​I. Problem Background​Electrical cables are the core transmission medium of power systems. Their quality performance directly determines the entire system's power supply stability, operational safety, equipment lifespan, and ability to prevent safety accidents such as fires. Substandard cables lead to a series of severe problems, including increased resistance, excessive heat generation, insulation breakdown, heightened fire risk, and aggravated signal interference. Therefore, establishing a s

​​1. Solution Background and Objectives​Lightning activity is a significant factor threatening the safety of buildings, personnel, and internal equipment. Lightning strikes generate high-intensity direct currents and transient overvoltages. These can not only cause building damage and physical destruction of equipment but also penetrate via metallic lines such as power supply lines and signal lines, leading to electronic equipment malfunctions, data loss, and even secondary disasters like fires.

​​I. Disposal Objectives​Upon detecting a lightning arrester fault, conduct rapid, safe, and effective on-site disposal to isolate the faulty equipment. Minimize threats to power grid operation, equipment safety, buildings, and personnel. Create conditions for subsequent detailed maintenance or replacement.​II. Handling Principles​​Safety First:​​ Always prioritize personal safety; strictly adhere to electrical safety regulations.​Rapid Response:​​ Initiate the disposal procedure immediately upo

​​I. Core Concept: Active Defense + Data-Driven​Breaks through traditional passive protection models by establishing a closed-loop system of "Detection-Evaluation-Warning-Optimization." Achieves precise protection through periodic inspections and dynamic risk assessments, reducing lightning strike incidents by over 40%.​II. Comprehensive Lightning Protection Facility Inspection System​​Three-Tier Inspection Mechanism​Initial Inspection (New/Retrofit Projects):Scans coverage density of air termin

​​I. Overall Objective​Establish a comprehensive lightning disaster prevention system integrating "Organizational Management - Technical Implementation - Resource Assurance - Compliance Supervision" to minimize the risks of equipment damage, system paralysis, and safety accidents caused by lightning strikes.​II. Core Implementation Plan​​Organizational Structure & Responsibility Mechanism​Establish a dedicated ​Lightning Protection Safety Working Group​ (Members include heads of Safety Dept.

​​I. Key Challenges in Southeast Asian Power Systems​​Extreme Climate Challenges​​Highest Global Lightning Density:​​ Over 160 thunderstorm days annually in regions like Indonesia and Malaysia.​Heavy Rainfall + Salt Fog Corrosion:​​ Accelerated equipment aging from salt erosion in coastal areas.​Persistent High Temperature & Humidity:​​ Accelerated degradation of sealing materials in environments ≥35°C and ≥80% RH.​Grid Vulnerabilities​​Aged Assets:​​ Over 40% of transmission/distr

​​I. Project Background and Objectives​With the increasing deployment of intelligent equipment in buildings, the risk of lightning damage has surged significantly. This scheme aims to establish a scientific and reliable lightning protection grounding system, ensuring effective protection for buildings and internal facilities during lightning strikes. It minimizes the risks of equipment damage and personal injury caused by lightning, providing a solid guarantee for the safe operation of facilitie