How to avoid defects caused by zinc splash during hot dip galvanized bridge production?

It is necessary to ensure that there are no pores, welding slag or spatter residues in the welding parts of the bridge, otherwise these defects will become the source of spatter.

How to design the heat dissipation structure of dense bus duct to avoid overheating of the conductor during long-term operation?

The selection and application of insulation materials also directly affect the heat dissipation effect. They not only need to meet the insulation performance, but also need to have good thermal conductivity.

How do bridge expansion joints utilize precise toothed plate structures to absorb thermal expansion and contraction, ensuring smooth vehicular traffic?

Between the steel backbone and concrete megastructure of a majestic bridge, bridge accessories act like countless silent "joints" and "buttons," their tiny bodies ensuring the structural integrity and safety.

How do dense bus ducts improve the overall efficiency of power transmission systems?

As a crucial component of modern power transmission systems, dense bus ducts offer significant advantages in improving overall efficiency.

How does the hot-dip galvanizing process achieve a uniform, smooth surface and long-lasting corrosion protection for cable bridges?

In the electrical network of modern buildings and industrial facilities, hot-dip galvanized bridges quietly and sturdily support the orderly arrangement and safe operation of cables.

What effect does the thermal expansion and contraction compensation design of dense bus duct have on system stability?

When the bus duct is in operation, the electromagnetic force generated by the current passing through the conductor may cause slight vibrations, and the expansion and contraction caused by temperature changes will aggravate such vibrations.