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Magnetostrictive Fe–Ga Wires for Application in the High-Temperature Waveguide Device

Jiheng Li, Mingming Li, Xing Mu, Xiaoqian Bao, Xuexu Gao

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Abstract

(Fe83Ga17)99.4B0.6 wires with 0.5 mm diameter were prepared by hot forging, rolling and combining hot and cold drawing. Strong 〈110〉 fiber texture was obtained in the as-drawn and annealed wires by alternating current with short time. Compared with the fracture elongation of about 0.1% in the as-drawn wire, the property increased to 16.1% in the annealed wire. The Young’s modulus of annealed wire was up to 174.3 GPa. In the annealed wires, the maximum twist angle of 206′′/cm and magnetostriction λ⊥ of −48 ppm was achieved respectively. The obvious voltage signals of the torsional wave could be detected up to 400°C in the annealed wire, which was attributed to the high Curie temperature and highly thermal-stable magnetic properties of the Fe–Ga alloy. The linear downward trend of the velocity of the torsional wave was observed from room temperature to around 250°C. The results indicate that (Fe83Ga17)99.4B0.6 wire is suitable for the high-temperature waveguide device.

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(Fe83Ga17)99.4B0.6 wires with 0.5 mm diameter were prepared by hot forging, rolling and combining hot and cold drawing. Strong 〈110〉 fiber texture was obtained in the as-drawn and annealed wires by alternating current with short time. Compared with the fracture elongation of about 0.1% in the as-drawn wire, the property increased to 16.1% in the annealed wire. The Young’s modulus of annealed wire was up to 174.3 GPa. In the annealed wires, the maximum twist angle of 206′′/cm and magnetostriction λ⊥ of −48 ppm was achieved respectively. The obvious voltage signals of the torsional wave could be detected up to 400°C in the annealed wire, which was attributed to the high Curie temperature and highly thermal-stable magnetic properties of the Fe–Ga alloy. The linear downward trend of the velocity of the torsional wave was observed from room temperature to around 250°C. The results indicate that (Fe83Ga17)99.4B0.6 wire is suitable for the high-temperature waveguide device.

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Available abstract

(Fe83Ga17)99.4B0.6 wires with 0.5 mm diameter were prepared by hot forging, rolling and combining hot and cold drawing. Strong 〈110〉 fiber texture was obtained in the as-drawn and annealed wires by alternating current with short time. Compared with the fracture elongation of about 0.1% in the as-drawn wire, the property increased to 16.1% in the annealed wire. The Young’s modulus of annealed wire was up to 174.3 GPa. In the annealed wires, the maximum twist angle of 206′′/cm and magnetostriction λ⊥ of −48 ppm was achieved respectively. The obvious voltage signals of the torsional wave could be detected up to 400°C in the annealed wire, which was attributed to the high Curie temperature and highly thermal-stable magnetic properties of the Fe–Ga alloy. The linear downward trend of the velocity of the torsional wave was observed from room temperature to around 250°C. The results indicate that (Fe83Ga17)99.4B0.6 wire is suitable for the high-temperature waveguide device.

Key concepts: Materials science, Magnetostriction, Curie temperature, Composite material, Alloy, Elongation, Torsion (gastropod), Annealing (glass)

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