In future power systems, what are the potential technical directions for improving the energy efficiency of Amorphous Alloy Dry Type Transformer?

Amorphous Alloy Dry Type Transformers have significant potential to improve energy efficiency in future power systems. The following are potential technical directions:
Material optimization:
Further develop and optimize amorphous alloy materials to reduce their resistivity, thereby reducing the energy loss of the transformer during operation. Currently, amorphous alloy dry-type transformers have shown lower no-load losses and load losses, but there is still room for further improvement.
Combined with new insulation materials and thermal conductive materials, the heat dissipation performance of the transformer is improved and the impact of temperature on energy efficiency is reduced.
Design innovation:
Optimize the electromagnetic structure design of the transformer and reduce the local concentration of magnetic flux and current density by improving the coil layout, winding structure and core shape, thereby reducing energy loss.
Introduce intelligent design technology, such as computer-aided design and simulation technology, to accurately model and simulate the transformer to optimize the design.
Manufacturing process improvement:
Advanced manufacturing processes and automation technologies are used to improve the manufacturing accuracy and consistency of transformers and reduce energy loss and material waste during the production process.
Introduce new connection technology and packaging technology to reduce the contact resistance and magnetic leakage inside the transformer and improve energy efficiency.
Energy-saving technology applications:
Combined with smart grid and energy management technology, it can realize intelligent control and optimized operation of transformers, automatically adjust the operating status of transformers according to changes in grid load, and reduce unnecessary energy losses.
Introduce energy storage technology and renewable energy technology, such as photovoltaics, wind energy, etc., to provide clean energy for transformers and reduce reliance on traditional energy and energy consumption.
Improved environmental adaptability:
Develop amorphous alloy dry-type transformers with higher environmental adaptability to adapt to operating requirements in climate conditions and harsh working environments to ensure the stability and energy efficiency of the transformer.
By improving the protection and heat dissipation design of the transformer, the impact of the external environment on the energy efficiency of the transformer is reduced.
Energy efficiency standards and certifications:
Promote the development of more stringent energy efficiency standards and certification systems, and encourage manufacturers to produce more efficient and environmentally friendly amorphous alloy dry-type transformers.
Strengthen the publicity and implementation of energy efficiency standards and improve users' awareness and acceptance of high-efficiency transformers.
In summary, through efforts in material optimization, design innovation, manufacturing process improvement, energy-saving technology application, environmental adaptability improvement, and energy efficiency standards and certification, the energy efficiency of amorphous alloy dry-type transformers in the future power system is expected to be further improved. promote.