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What is Curie temperature experiment? 


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The Curie temperature experiment is a method used to determine the temperature at which a material undergoes a phase transition from a ferromagnetic to a paramagnetic state. Different approaches have been proposed to measure the Curie temperature. One method involves evaluating temperature profiles along the axis of a cylindrical sample using thermal conductivity and thermal diffusivity measurements . Another approach analyzes high-temperature magnetization and magnetic initial susceptibility curves to identify the inflection point or the temperature of maximum curvature . An experimental device has also been developed, which measures the temperature of a ferromagnetic material when its spontaneous magnetization disappears . Additionally, Curie temperature controlled magnetic nanoparticle filler-polymer matrix composites have been investigated for their self-healing capabilities . A quantitative experiment has been developed using a ferromagnetic wire attracted to a magnet, where the temperature at which the wire becomes paramagnetic is determined .

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The Curie temperature experiment involves heating a ferromagnetic wire until it loses its magnetic properties and becomes paramagnetic.
Curie temperature experiment involves using magnetic nanoparticles with tunable Curie temperature to generate localized heat for self-healing of polymers.
Curie temperature experiment measures the temperature at which spontaneous magnetization of a ferromagnetic material disappears.
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The Curie temperature experiment involves measuring the temperature at which a material undergoes a phase transition from a magnetic to a non-magnetic state.
The Curie temperature experiment involves measuring the temperature at which a material undergoes a change in its magnetic properties.

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