​I. Background and Demand​With the rapid increase in renewable energy adoption, traditional electromagnetic transformers struggle to meet modern grids’ demands for flexibility, efficiency, and intelligence. The volatility and intermittency of wind and solar power pose severe challenges to grid stability, necessitating an innovative energy conversion hub capable of dynamic regulation and high-quality power output.​II. Solution Overview​This solution employs ​all-solid-state Power Electronic

1. Background and Challenges​Some transmission transformers in current power grid systems face significant challenges. On one hand, aging equipment with extended operational lifespans exhibits gradual degradation in technical performance, reliability, and safety. On the other hand, traditional manual inspections and periodic maintenance are inefficient, lagging in detecting potential faults. Maintenance efforts are plagued by high costs, operational difficulties, and challenges in fault localiza

Ⅰ. Core ObjectivesEnhance power generation efficiency, ensure power supply reliability, reduce full life-cycle operational costs, and achieve intelligent regulation of power systems.Ⅱ. Core Subsystem Optimization Solutions​Dedicated Solution for Power Transformers​Pain Point Analysis: Transformers serve as the critical hub for power transmission, accounting for 3%~5% of total plant energy losses. Failure-induced downtime leads to complete plant power outages.1. ​Transformer Selection & Techn

Ⅰ. Background and Pain Points​As power generation enterprises scale up and grid intelligence advances, traditional periodic maintenance models struggle to meet the O&M demands of large power transformers:• ​Delayed Fault Response: Sudden insulation aging or overheating cannot be detected in real time• ​High Maintenance Costs: Over-maintenance wastes resources, while insufficient maintenance causes unplanned downtime• ​Fragmented Data Analysis: Isolated data from DGA (Dissolved

1. Background and Challenges​With the continuous growth of power loads and increasingly stringent requirements for stable grid operation, transmission transformers face severe challenges regarding operational efficiency, temperature rise control, and long-term reliability. Excessive operating temperatures accelerate the aging of insulation materials, shorten equipment lifespan, and increase failure risks. High magnetic circuit losses (primarily iron loss and copper loss) reduce energy utilizatio

Ⅰ. Core Challenges and Objectives​​Challenges:​​ During long-term operation, transmission transformers face two core issues: insulation material aging (leading to reduced insulation strength and diminished heat resistance) and transformer oil degradation (increased moisture content, impurity accumulation, rising acid number, etc.), which threaten equipment safety and service life.​Objectives:​​ Through material upgrades and management reinforcement, significantly enhance the stability of insulat

​​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

​​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. 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. 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