Item | Performance |
---|---|
Material Composition | FeCuNbSiB |
Thickness(um) | 28~35 |
Saturation induction Bs (T) | 1.25 |
Curie temperature(oC) | 570oC |
Hardness Hv | 880 |
Crystalline temperature Tc(oC) | 500oC |
Saturation magnetostriction | 2×10-6 |
Initial permeability μi | ≥80000 |
Maximum permeability um | ≥500000 |
Density(g/cm³ ) | 7.2 |
Electrical resistivity(μΩ.cm) | 130 |
Lamination factor | ≥0.8 |
Operating Temperature Range | -50~120℃ |
Core Dimensions | OD*ID*H | Iron cross section | Mean path length | Weight | Permeability (μ at 10KHz) | AL Nominal | Saturation current typical/A | ||||
---|---|---|---|---|---|---|---|---|---|---|---|
JJ-1005-W01W9 | 14.9*6.5*4.5 | 11.2*5.1*5.8 | 0.06 | 2.6 | 1.165 | 600≤μ≤127000 | 87000 | 25.5 | 6.4 | 0.2 | 0.4 |
The manufacturing process of nanocrystalline cores involves several critical steps. Initially, a ribbon of amorphous metal is produced through rapid solidification from the molten state, typically involving a melt spinning process. This ribbon is then wound into the core shape followed by a process of annealing under controlled conditions to induce nanocrystalline structures. Heat treatment is performed in a magnetic field to enhance magnetic properties such as permeability and reduce core losses. The entire process is carefully controlled to ensure consistent quality and optimal performance parameters. The outcome is a core with superior magnetic properties, crucial for high-efficiency, low-loss applications.
Nanocrystalline cores are widely used in various high-frequency and high-efficiency applications due to their superior magnetic properties. In switch-mode power supplies (SMPS), these cores enable higher efficiency and smaller size due to their low core losses and high permeability. In applications like electric vehicle chargers and renewable energy systems, the high saturation flux density allows for more compact transformer designs. Additionally, they are crucial in medical equipment for high-frequency transformers due to their excellent performance in minimizing electromagnetic interference (EMI). In rail transit power supplies and charging piles, their robust performance at wide temperature ranges ensures reliability and efficiency in demanding environments.
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China's nanocrystalline cores are revolutionizing the electric vehicle industry. Their high permeability and low core losses make them ideal for high-frequency transformers used in EV chargers. This leads to more efficient charging systems with reduced energy consumption, contributing to the overall performance and longevity of electric vehicles.
In renewable energy systems, China's nanocrystalline cores ensure high efficiency and reliability. These cores are crucial in transformers and inductors of solar inverters and wind turbines, where minimal core losses and high saturation flux density are essential for converting and transmitting renewable energy efficiently.
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