The 500kV EHV transformer (extra high voltage transformer) integrates extensive extra-high voltage manufacturing expertise with rigorous quality control standards. Through optimized insulation and structural engineering, the 500kV transformer effectively resolves complex technical challenges, including partial discharge, localized overheating, high short-circuit stresses, static electrification from oil flow, and Very Fast Transient Overvoltage (VFTO).
Built with low operational losses, low noise, leak-free oil sealing, and smart diagnostic readiness, the 500kV EHV power transformer offers a low-maintenance, energy-efficient solution suitable for utility grid transmission systems, wind power plants, thermal power stations, and other large-scale energy infrastructure.
Advanced Electric Field & Insulation Design: Engineered to optimize electrical gradients and minimize partial discharge (PD) risk, ensuring full compliance with strict IEC and IEEE standards.
Enhanced Short-Circuit & Thermal Stability: Utilizes rigid winding clamping and optimized oil cooling paths to withstand high electrodynamic forces and localized hot spots during power surges.
Mitigation of EHV Operational Risks: Specifically designed to address complex extra-high voltage technical challenges, including Very Fast Transient Overvoltage (VFTO) and oil flow static electrification.
Smart Diagnostics Readiness (Optional): Compatible with advanced online monitoring sensors (such as DGA and winding temperature tracking) for real-time asset condition management.
Every 500kV EHV transformer is custom-engineered to align with specific power grid standards, local site environments, and transport restrictions.
To help our engineering team provide an accurate technical assessment and quotation, please specify or provide the following project details:
Electrical Parameters: Rated voltage ratio (e.g., 525/230/35 kV), rated capacity, vector group, and required short-circuit impedance.
Site & Environmental Conditions: Installation altitude, ambient temperature range, seismic rating, and site pollution level (for bushing selection).
System Configuration: Desired cooling topology (ONAN/ONAF/ODAF), terminal connections (Air-to-Oil bushings or direct SF6 GIS interfaces), and transport weight limits.
Documentation: Single-Line Diagram (SLD) or project technical specification sheet (if available).
We're here to help! Connect with our team for expert support and personalized solutions.
Check out these related products you might also be interested in.
Get A QuotePower your projects with long-lasting switchgear and switchgear components from Liyond.