1. (a) Which of these is an impossible electrostatic field? E1 = x xˆ + y yˆ − 2z z E ˆ 2 = xz xˆ + yz yˆ − xy z E ˆ 3 = 3 sin (θ) θ E ˆ 4 = 4 rˆ 1. (b) For the valid E-fields, find an electric potential V that would give the right E. Use the origin as a reference point. Check your answer by calculating −∇V .
1. (a) Which of these is an impossible electrostatic field? E1 = x xˆ + y...
Please, Solve it as soon as possible
4.) (57 pts) Below you've been given three (3) possible electrostatic E-fields (where y is a constant having appropriate units, and x/y/z are the Cartesian unit vectors): possible electrostatic E-field 1: E1 = y((2x+5)x + zy + (y-1);) possible electrostatic E-field 2: E2 = y(2xx - (x-3)y + yz) possible electrostatic E-field 3: Ez = y(7xx - 8yy + 9zz) [7 pts each] For each of the possible electrostatic E-fields given, prove whether...
Consider the electrostatic field e=k[y^2i+ (2xy+z^2)j+ 2yzk] calculate the potential of this field using the origin as a reference
The electrostatic potential in a particular xy coordinate system is given by V(x,y)- 3xy 5y 2. Find the expression for the electric field. In a different system, the electric field is given by E(x.y) - 2xy3 î+ find an expression for the electrostatic potential.
(c) Let F be the vector field on R given by F(x, y, z) = (2x +3y, z, 3y + z). (i) Calculate the divergence of F and the curl of F (ii) Let V be the region in IR enclosed by the plane I +2y +z S denote the closed surface that is the boundary of this region V. Sketch a picture of V and S. Then, using the Divergence Theorem, or otherwise, calculate 3 and the XY, YZ...
We know from electrostatics that if we have a scalar electrostatic potential V, then there exists an electric field that satisfies: Of course, not all vector fields can be written as the gradient of a scalar function. (a) Show that the electric field given below is not the result of an electrostatic potential. E(x, y, z) = ( 3.0m,2 ) ( yi-TJ (b) Just because this electric field can't come from an electrostatic potential, it doesn't mean it can't exist...
#7, #11, #17 please
Calculating the Curl and the Divergence In Exercises 1-20, calculate curl F and divF of the given vector fields F. F = 1 1. F= (°yz?, xyz, wy) 2. F= (x+y23, xyz2, xz) 3. F= (zey, well, ye**) 4. F = (xeyz, zety, ye** ) 5. F= (xsin yz, y sin xz, zsin zy) 6. F = (y sin uz, e sinyz, 2 sinxy) 7, F = (sin x cos z, sin y cos x, sin...
96. Consider a vector field F(x, y, z) =< x + x cos(yz), 2y - eyz, z- xy > and scalar function f(x, y, z) = xy3e2z. Find the following, or explain why it is impossible: a) gradF (also denoted VF) b) divF (also denoted .F) c) curl(f) (also denoted xf) d) curl(gradf) (also denoted V x (0f) e) div(curlF) (also denoted 7. (V x F))
FIG. 2. Setup of Exercise 3 Exercise 3 The electrostatic potential of an electic dipole moment d located at the origin takes the following form d-T Tr where r is the vector joining the origin to the point X (7 is called the "position vector" in the textbook). See Fig. 2 (i) Chosing the z axis to be aligned with the electric dipole moment, express φ in terms of cartesian, cylindrical, (ii) The electric field is obtained from E-- Compute...
a. Use the Chain Rule to find the indicated partial derivatives. z = x4 + x2y, x = s + 2t − u, y = stu2; ∂z ∂s ∂z ∂t ∂z ∂u when s = 1, t = 2, u = 3 b. Use the Chain Rule to find the indicated partial derivatives. w = xy + yz + zx, x = r cos(θ), y = r sin(θ), z = rθ; ∂w ∂r ∂w ∂θ when r = 8, θ = pi/2 c. Use the...
1. Evaluate the line integral S3x2yz ds, C: x = t, y = t?, z = t3,0 st 51. 2. Evaluate the line integral Scyz dx - xz dy + xy dz , C: x = e', y = e3t, z = e-4,0 st 51. 3. Evaluate SF. dr if F(x,y) = x?i + xyj and r(t) = 2 costi + 2 sin tj, 0 st St. 4. Determine whether F(x,y) = xi + yj is a conservative vector field....