Material Composition | FeCuNbSiB |
---|---|
Thickness | 28~35 μm |
Saturation Induction (Bs) | 1.25 T |
Curie Temperature | 570°C |
Core Dimensions | Weight | Permeability (μ at 10KHz) |
---|---|---|
9.8*6.5*4.5cm | 1.2g | 5600≤μ≤127000 |
20*12.5*8cm | 5.1g | 72000≤μ≤135000 |
The manufacturing process of high-quality transformer laminations involves precise cutting and stacking of silicon steel sheets. Silicon is added to the steel to minimize hysteresis loss, enhancing efficiency. The sheets are coated with insulating varnish to prevent eddy currents. This process requires meticulous control to maintain the uniform thickness essential for optimal functionality. Advances in grain-oriented steel have further improved lamination performance, aligning grains with magnetic flux for reduced resistive loss. This precision engineering ensures high-performance transformer laminations capable of meeting modern electrical demands.
Transformer laminations are vital in energy-efficient power systems, including telecommunications, medical equipment, and electric vehicles. In telecommunications, they enable reliable power supply through efficient voltage conversion. Medical equipment benefits from reduced electromagnetic interference, enhancing diagnostic accuracy. Electric vehicles utilize these laminations to optimize energy conversion, increasing driving range. As new energy sources emerge, high-quality transformer laminations remain indispensable, driving innovation in sustainable power solutions. Their versatility and efficiency make them a cornerstone of modern electrical infrastructure.
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