The electric field is zero everywhere inside a charged conductor in electrostatic equilibrium. Can you infer that the potential is everywhere zero (Yes/No)? Explain your answer.
E = -(del V / del r) (1)
i.e electric field at any point is the negative of the gradient of the electric potential at that point.
If E in a charged conductor is zero, then from (1) it can be inferred that V= constant & the constant may not be zero.
For example, in case of a charged conducting sphere, the electric field inside the sphere is zero whereas the electric potential inside the sphere is constant and is equal to the electric potential on the outer surface of the sphere
The electric field is zero everywhere inside a charged conductor in electrostatic equilibrium. Can you infer...
The electric potential inside a charged conductor in electrostatic equilibrium A. Is zero B. Is highest at a sharp corner C. Is lowest at a sharp corner D. Depends on the net charge of the conductor
What is the electric potential inside a conductor: Zero everywhere The same everywhere Varies, depending on the shape of the conductor Varies, depending on the amount of charge on the conductor Are electric field lines more or less dense near a collection of charge? Explain.
The electric field must be zero inside a conductor in electrostatic equilibrium, but not inside an insulator. It turns out that we can still apply Gauss's law to a Gaussian surface that is entirely within an insulator by replacing the right-hand side of Gauss's law, Qin/ε0, with Qin/ε, where ε is the permittivity of the material. (Technically, ε0 is called the vacuum permittivity.) Suppose that a 75 nC point charge is surrounded by a thin, 32-cm-diameter spherical rubber shell and...
The electric field must be zero inside a conductor in electrostatic equilibrium, but not inside an insulator. It turns out that we can still apply Gauss's law to a Gaussian surface that is entirely within an insulator by replacing the right-hand side of Gauss's law, Qin / Eo, with Qin /ɛ, where ε is the permittivity of the material. (Technically, so is called the vacuum permittivity.) Suppose that a 75 nC point charge is surrounded by a thin, 32-cm-diameter spherical...
A solid spherical conductor is charged positively and in electrostatic equilibrium. Which of the following is true. a. the total charge on the conductor must be zero. b. the electric field inside the conductor must be zero. c. any charges on the conductor must be uniformly distributed throughout the sphere. d. the electric field lines are radialy inward from the surface.
For a conductor in electrostatic equilibrium, which of the following properties are true? Choose all that apply. Any excess charge is uniformly spread throughout the volume of the conductor. The electric field inside is zero. The entire conductor is at the same potential.
7. The electric field is zero: a. inside any conductor. inside any conductor with a static charge. inside any material, conductor or insulator, with a static charge. d. Never e. Always. I there is a force of 5.0 x 1012 N acting to the left on an electron, the electric field intensity at the location of this electron will be: a. zero. b. 8.0 x 103 N/C to the left c. 3.1 x 10" N/C to the left 3.1 x...
Q4 : The electric potential inside a charged spherical conductor of radious R is given by V = KERA and the potential outside is given by V = ke Q Derive the electric field a)inside b) outside the spherical conductor. ID
2) Describe the electric field inside a positively charged solid conductor? Explain your reasoning in detail. 3) hat ir aloctrical recinton
1 (a) Explain why there is no electic field inside an uncharged, or statically charged, [2] conductor (b) An uncharged perfectly conducting solid sphere of radius a is placed with its centre at the origin in a region of uniform electric field E = E02. The presence of the sphere modifies the electric field (and the potential) i. Show that the initial potential in spherical coordinates is Vinit (T, 0, )Eor cos 0 everywhere (i.e. before the sphere was placed...