Property | Value |
---|---|
Material Composition | FeCuNbSiB |
Strip Thickness Tolerance (mm) | 32±2 |
Magnetic Strength B800 | ≥1.2T |
Curie Temperature (°C) | 570 |
Crystallization Temperature (°C) | 500 |
Saturation Magnetostriction Coefficient | <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 |
Coercivity Hc | ≤1A/m |
Operating Temperature Range (°C) | -50~120 |
The factory manufacturing process involves the rapid solidification of molten metal to form an amorphous nanocrystalline structure. This is followed by precise heat treatment to develop nanometer-sized crystalline grains within the amorphous matrix. This dual-phase structure provides superior magnetic properties, making it ideal for high-efficiency applications. Studies demonstrate that such materials possess a remarkable stability under thermal and mechanical stresses, contributing to their durability in various operational environments.
Amorphous nanocrystalline cores are integral to modern energy systems, particularly in power transformers and inductors. Their reduced energy loss and high permeability make them beneficial in electric vehicles and renewable energy technologies. Moreover, the ability to suppress EMI/RFI makes them a critical component in sensitive electronic devices, ensuring optimal performance in diverse environments. Authoritative studies highlight their role in enhancing the efficiency of electronic systems, marking them as pivotal in future technological advancements.
We provide comprehensive after-sales support including technical assistance, repair services, and replacement guarantees to ensure customer satisfaction and product longevity.
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The efficiency of power systems is greatly improved by incorporating factory-produced amorphous nanocrystalline cores. By minimizing energy losses, these cores offer substantial savings in terms of both energy and operational costs. Their unique structural properties allow for a reduction in core loss and an increase in inductive efficiency, making them a key component in modern energy-efficient designs.
Electric vehicles rely heavily on efficient power management systems, where factory amorphous nanocrystalline cores play a pivotal role. These cores contribute to lighter powertrain components that are essential for EV efficiency. Their high permeability and low core loss profile is critical in managing the power flow effectively, influencing the overall performance and range of electric vehicles.