How to optimize the design of Amorphous Alloy Dry Type Transformer to improve its overload capacity?

In the power system, the transformer is a vital equipment, and the Amorphous Alloy Dry Type Transformer has attracted widespread attention for its high efficiency and energy saving. Improving its overload capacity is of great significance to ensure the stable operation of the power system. So, how to optimize the design of amorphous alloy dry type transformer to improve its overload capacity?
First, start with the material selection. Amorphous alloy materials have the advantages of low loss and high magnetic permeability, and are ideal materials for manufacturing dry type transformers. When selecting amorphous alloy materials, products with reliable quality and stable performance should be selected. At the same time, new amorphous alloy materials, such as nanocrystalline alloys, can also be considered to further improve the performance of the transformer.
Secondly, optimize the structural design of the transformer. Reasonable structural design can improve the heat dissipation performance and mechanical strength of the transformer, thereby improving its overload capacity. For example, a winding structure with better heat dissipation performance can be used to increase the heat dissipation area and improve the heat dissipation efficiency. At the same time, a reinforced core structure can also be used to improve the mechanical strength of the transformer and reduce deformation and damage under overload conditions.
In addition, improving the cooling system of the transformer is also an important measure to improve the overload capacity. A combination of various cooling methods such as air cooling and water cooling can be used to improve the heat dissipation effect of the transformer. At the same time, temperature sensors and control systems can be installed to monitor the temperature of the transformer in real time, and automatically adjust the operating status of the cooling system according to temperature changes to ensure that the temperature of the transformer does not exceed the allowable value under overload conditions.
During the design process, the insulation performance of the transformer should also be fully considered. Good insulation performance can ensure that the transformer will not have insulation breakdown and other faults under overload conditions. High-quality insulation materials can be used to optimize the insulation structure and improve insulation strength and heat resistance.
In addition, the reasonable selection of transformer capacity and parameters is also the key to improving overload capacity. The capacity of the transformer should be reasonably selected according to the actual load conditions to avoid excessive or too small capacity. At the same time, the voltage level, short-circuit impedance and other parameters of the transformer should be reasonably selected according to the requirements of the power system to ensure that the transformer can operate stably under overload conditions.