What is the basic difference between magnetic field, magnetic field lines, magnetic flux and magnetic field intensity?

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The basic difference between magnetic field, magnetic field lines, magnetic flux, and magnetic field intensity is as follows:

Magnetic field: Magnetic field is a region in which a magnet or a current-carrying conductor experiences a force. It is a vector quantity that describes the strength and direction of the magnetic force at any point in space.
Magnetic field lines: Magnetic field lines are imaginary lines that are used to represent the direction and strength of the magnetic field. They are always drawn in such a way that the tangent to the line at any point gives the direction of the magnetic field at that point. The density of the magnetic field lines indicates the strength of the magnetic field.
Magnetic flux: Magnetic flux is the product of the magnetic field strength and the area perpendicular to the magnetic field. It is a scalar quantity that measures the number of magnetic field lines passing through a given area.
Magnetic field intensity: Magnetic field intensity, also known as magnetic field strength, is the magnetic field per unit length of a current-carrying conductor. It is a vector quantity that describes the strength and direction of the magnetic field at a point in space due to a current-carrying conductor.

In summary, magnetic field and magnetic field intensity are vector quantities that describe the strength and direction of the magnetic field, while magnetic field lines are imaginary lines that represent the direction and strength of the magnetic field. Magnetic flux is a scalar quantity that measures the number of magnetic field lines passing through a given area.

difference between magnetic field, magnetic field lines, magnetic flux and magnetic field intensity

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1.
The figure shows three point charges kept at the vertices of triangle ABC. The net electric field, due to this system of charges, at the midpoint M of base BC will be:

\( \frac{q}{4 \pi \epsilon_0 l^2} \) pointing along MA
\( \frac{q}{\pi \epsilon_0 l^2} \) pointing along AM
\( \frac{q}{2 \pi \epsilon_0 l^2} \) pointing along AM
Zero

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If both the number of protons and the neutrons are conserved in each nuclear reaction, in what way is mass converted into energy (or vice versa) in a nuclear reaction? Explain.

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If Bohr’s quantization postulate (angular momentum \( = \frac{nh}{2\pi} \)) is a basic law of nature, it should be equally valid for the case of planetary motion also. Why, then, do we never speak of quantization of orbits of planets around the Sun? Explain.

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Write any two features of nuclear forces.

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What is displacement current (\( i_d \))? Considering the case of charging of a capacitor, show that \( i_d = \varepsilon_0 \frac{d\Phi_E}{dt} \). What is the value of \( i_d \) for a conductor across which a constant voltage is applied?

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What is the basic difference between magnetic field, magnetic field lines, magnetic flux and magnetic field intensity?

CBSE CLASS XII Related Questions

1.
The figure shows three point charges kept at the vertices of triangle ABC. The net electric field, due to this system of charges, at the midpoint M of base BC will be:

3.
If both the number of protons and the neutrons are conserved in each nuclear reaction, in what way is mass converted into energy (or vice versa) in a nuclear reaction? Explain.

4.
If Bohr’s quantization postulate (angular momentum \( = \frac{nh}{2\pi} \)) is a basic law of nature, it should be equally valid for the case of planetary motion also. Why, then, do we never speak of quantization of orbits of planets around the Sun? Explain.

5.
Write any two features of nuclear forces.

6.
What is displacement current (\( i_d \))? Considering the case of charging of a capacitor, show that \( i_d = \varepsilon_0 \frac{d\Phi_E}{dt} \). What is the value of \( i_d \) for a conductor across which a constant voltage is applied?

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What is the basic difference between magnetic field, magnetic field lines, magnetic flux and magnetic field intensity?

CBSE CLASS XII Related Questions

1.The figure shows three point charges kept at the vertices of triangle ABC. The net electric field, due to this system of charges, at the midpoint M of base BC will be:

3. If both the number of protons and the neutrons are conserved in each nuclear reaction, in what way is mass converted into energy (or vice versa) in a nuclear reaction? Explain.

4. If Bohr’s quantization postulate (angular momentum \( = \frac{nh}{2\pi} \)) is a basic law of nature, it should be equally valid for the case of planetary motion also. Why, then, do we never speak of quantization of orbits of planets around the Sun? Explain.

5. Write any two features of nuclear forces.

6.What is displacement current (\( i_d \))? Considering the case of charging of a capacitor, show that \( i_d = \varepsilon_0 \frac{d\Phi_E}{dt} \). What is the value of \( i_d \) for a conductor across which a constant voltage is applied?

Similar Physics Concepts

Comments

SUBSCRIBE TO OUR NEWS LETTER

1.
The figure shows three point charges kept at the vertices of triangle ABC. The net electric field, due to this system of charges, at the midpoint M of base BC will be:

3.
If both the number of protons and the neutrons are conserved in each nuclear reaction, in what way is mass converted into energy (or vice versa) in a nuclear reaction? Explain.

4.
If Bohr’s quantization postulate (angular momentum \( = \frac{nh}{2\pi} \)) is a basic law of nature, it should be equally valid for the case of planetary motion also. Why, then, do we never speak of quantization of orbits of planets around the Sun? Explain.

5.
Write any two features of nuclear forces.

6.
What is displacement current (\( i_d \))? Considering the case of charging of a capacitor, show that \( i_d = \varepsilon_0 \frac{d\Phi_E}{dt} \). What is the value of \( i_d \) for a conductor across which a constant voltage is applied?