Question:
A paramagnetic substance of susceptibility $ 3\times {{10}^{-4}} $ is placed in a magnetic field of $ 4\times {{10}^{-4}}A{{m}^{-1}} $ . Then the intensity of .magnetization in the units of $ A{{m}^{-1}} $ is
A paramagnetic substance of susceptibility $ 3\times {{10}^{-4}} $ is placed in a magnetic field of $ 4\times {{10}^{-4}}A{{m}^{-1}} $ . Then the intensity of .magnetization in the units of $ A{{m}^{-1}} $ is
Updated On: Jun 7, 2024
- $ 1.33\times {{10}^{8}} $
- $ 0.75\times {{10}^{-8}} $
- $ 12\times {{10}^{-8}} $
- $ 14\times {{10}^{-8}} $
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The Correct Option is C
Solution and Explanation
Susceptibility $ (\chi ) $ $ =\frac{intensity\text{ }of\text{ }magnetisation(I)}{magnetic\text{ }field(B)} $
or $ I=\chi B $
$ \therefore $ $ I=3\times {{10}^{-4}}\times 4\times {{10}^{-4}} $
or $ I=12\times {{10}^{-8}}A{{m}^{-1}} $
or $ I=\chi B $
$ \therefore $ $ I=3\times {{10}^{-4}}\times 4\times {{10}^{-4}} $
or $ I=12\times {{10}^{-8}}A{{m}^{-1}} $
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Magnets are used in many devices like electric bells, telephones, radio, loudspeakers, motors, fans, screwdrivers, lifting heavy iron loads, super-fast trains, especially in foreign countries, refrigerators, etc.
Magnetite is the world’s first magnet. This is also called a natural magnet. Though magnets occur naturally, we can also impart magnetic properties to a substance. It would be an artificial magnet in that case.
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Some of the properties of the magnetic field lines are:
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- But here the lines seem to originate from the South pole and terminate at the North pole to form closed loops.
- More number of close lines indicate a stronger magnetic field
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