Pure Copper Foil Winding for VFD Harmonics Filtering. The HY96 Heavy Duty Output Reactor is a high-performance power component engineered for demanding variable frequency drive (VFD) applications, featuring a 2500A current rating and 13.2V voltage rating.
Key Features & Benefits
Pure copper foil winding for superior conductivity and heat dissipation
Optimizes power quality and protects equipment
Ensures stable operation in demanding industrial environments
Reduces energy loss and improves overall system efficiency
Extends service life of VFDs and connected motors
Technical Specifications
Current Rating
2500A
Voltage Rating
13.2V
Copper Conductivity
Approximately 5.96×10⁷ S/m
Thermal Conductivity
401 W/(m*K)
Temperature Rise
≤65K
Noise Level
≤55dB
Frequency Range
100Hz-50kHz
Pure Copper Foil Advantages
The pure copper foil winding provides significant performance advantages over traditional windings. With excellent thermal conductivity (401 W/(m*K)), it enables rapid heat dissipation, preventing overheating during prolonged heavy-duty operation. The high mechanical strength and ductility ensure stable winding structure, mitigating skin effect and eddy current losses common in high-frequency VFD applications.
VFD Harmonic Filtering Performance
As a dedicated VFD output reactor, the HY96 plays a critical role in filtering harmonic interference generated by VFDs during AC-DC-AC conversion. It effectively suppresses harmonics across 100Hz-50kHz with exceptional filtering performance, while slowing voltage rise rate (dv/dt) to protect motor windings and reduce bearing current corrosion.
Industrial Applications
Metallurgical rolling mills
Oil rigs and drilling equipment
Industrial pumps and conveyors
High-power industrial equipment
Systems with long motor leads
Reliability & Performance: Built for heavy-duty industrial use with rugged design, low-loss silicon steel core, and vacuum impregnation process. Features excellent overload capacity to adapt to sudden load changes, enhancing system stability and minimizing downtime.