This article analyzes the mechanisms and materials that allow for the temporary reduction and restoration of magnetic field strength. Two magnets are in a state of mutual attraction, and a spring system is installed between them. In experiments, changes in the force of attraction are observed when different materials are placed between the magnets. The effect of ferromagnetic (iron, steel), diamagnetic (graphite, copper, bismuth) and superconducting materials on the magnetic force is analyzed. The article demonstrates the scientific and technological importance of magnetic field control and discusses the possibilities of its application in engineering and industry [1-3].
This article analyzes the mechanisms and materials that allow for the temporary reduction and restoration of magnetic field strength. Two magnets are in a state of mutual attraction, and a spring system is installed between them. In experiments, changes in the force of attraction are observed when different materials are placed between the magnets. The effect of ferromagnetic (iron, steel), diamagnetic (graphite, copper, bismuth) and superconducting materials on the magnetic force is analyzed. The article demonstrates the scientific and technological importance of magnetic field control and discusses the possibilities of its application in engineering and industry [1-3].
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