Non-encapsulated Class H dry-type power transformer 200kVA 250kVA 315kVA 400kVA
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| Brand | Wone |
| Model NO. | Non-encapsulated Class H dry-type power transformer 200KVA 250KVA 315KVA 400KVA |
| Rated capacity | 315kVA |
| Voltage grade | 10KV |
| Series | SG (B) 10 |
Description:
The company has strong transformer production capacity and efficient marketing team. The products include 110kV, 220kV large ultra-high voltage transformers and 35kV and below dry-type transformers, oil-immersed transformers, amorphous alloy transformers, prefabricated substations, photovoltaic/wind power transformers, on-load capacity-regulating transformers, geographic transformers, high-overload power transformers, dedusting transformers, marine transformers, SVG connecting transformers, SVR line automatic voltage regulators, coil core transformers, Scott transformers ZP (T) S type/ZPSC type/ZPSG-W type multi-winding phase-shifting rectifier transformer and special transformers such as specification box transformer, furnace transformer, rectifier transformer and mine transformer.
Parameter:
The working principle of an unencapsulated Class H dry-type power transformer？
Iron Core: It is usually made up of laminated high-quality silicon steel sheets, featuring low loss and low noise. The function of the iron core is to concentrate and guide the magnetic field, thus improving the efficiency of the transformer.
Primary Winding: Connected to the high-voltage side, it receives the input voltage. The primary winding is usually wound with copper or aluminum wires.
Secondary Winding: Connected to the low-voltage side, it outputs the required voltage. The secondary winding is also wound with copper or aluminum wires.
Insulation Materials: H-class insulation materials such as NOMEX paper and fiberglass are used, which possess excellent heat resistance and electrical properties.
Cooling System: Usually, natural air cooling (AN) or forced air cooling (AF) is adopted. The appropriate cooling method is selected according to specific application requirements.
Input Voltage: The alternating current power source is applied to the transformer through the primary winding.
Generating Magnetic Field: The current in the primary winding generates an alternating magnetic field in the iron core.
Transferring Magnetic Field: The alternating magnetic field is transferred to the secondary winding through the iron core.
Inducing Electromotive Force: The alternating magnetic field induces an electromotive force in the secondary winding, generating the output voltage.
Output Voltage: The secondary winding outputs the required voltage for the load to use.
