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The electric potential inside a conducti...

The electric potential inside a conducting sphere

A

increases from cente to surface

B

decreases from cente to surface

C

remians constant from centre to surface

D

is zero at every point inside

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### Step-by-Step Solution: 1. **Understanding the Conducting Sphere**: - A conducting sphere is a conductor that has a uniform distribution of charge on its surface when charged. Inside the conductor, the electric field is zero. 2. **Electric Field Inside the Sphere**: - According to electrostatic principles, the electric field (E) inside a conductor in electrostatic equilibrium is zero. This means that there is no change in electric potential inside the conducting sphere. 3. **Relation Between Electric Field and Electric Potential**: - The electric field (E) is related to the electric potential (V) by the equation: \[ E = -\frac{dV}{dr} \] - Since the electric field inside the conducting sphere is zero (E = 0), we can conclude that: \[ -\frac{dV}{dr} = 0 \] - This implies that the derivative of the potential with respect to radius (r) is zero, indicating that the potential does not change with distance inside the sphere. 4. **Conclusion About Electric Potential**: - Since the electric potential does not change, it must be constant throughout the interior of the conducting sphere. The value of this constant potential is equal to the potential at the surface of the sphere. 5. **Final Statement**: - Therefore, the electric potential inside a conducting sphere is constant and equal to the potential at its surface.

### Step-by-Step Solution: 1. **Understanding the Conducting Sphere**: - A conducting sphere is a conductor that has a uniform distribution of charge on its surface when charged. Inside the conductor, the electric field is zero. 2. **Electric Field Inside the Sphere**: - According to electrostatic principles, the electric field (E) inside a conductor in electrostatic equilibrium is zero. This means that there is no change in electric potential inside the conducting sphere. ...
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A2Z-ELECTRIC POTENTIAL & CAPACITANCE-Section D - Chapter End Test
  1. The electric potential inside a conducting sphere

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  2. Given: electric potential, phi = x^(2) + y^(2) +z^(2). The modulus of ...

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  3. 125 identical drops each charged to the same potential of 50 volts are...

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  4. Figure shown three points. X, Y and Z forming an equilaternal triangle...

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  5. A point charge is surrounded symmetrically by six identical charges at...

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  6. A charge +Q at A (see figure) produces electric field E and electric p...

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  7. The concentric, thin metallic spheres of radii r(1) and r(2) (r(1) gt ...

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  8. In figure below, the point charge Q(1) causes an electric potential of...

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  9. Two point charges are kept at a certain distance from one another. The...

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  10. A, B, C, D, P, and Q are points in a uniform electric field. The poten...

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  11. Figure shown two equipotential lies x, y plane for an electric field. ...

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  12. An electric dipole is placed along the X-axis O. Point P is at a dista...

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  13. An electric field is given by E(x) = - 2x^(3) kN//C. The potetnial of ...

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  14. All six capacitors shown are identical. Each can withstand maximum 200...

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  15. Two identical parallel plate capacitors are connected in series to a b...

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  16. Five capacitors of 10 muf capacity each are connected to a.d.c potenti...

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  17. A frictionless dielectric plate S is kept on a frictionless table T. A...

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  18. The mean electric energy density between the plates of a charged capac...

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  19. The potentials of the two plates of capacitor are +10V and -10 V. The ...

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  20. Two dielctric slabs of constant K(1) and K(2) have been filled in betw...

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  21. Two parallel plate air filled capacitors, each of capacitacne C are jo...

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