The long thin cylindrical glass rod shown below has length l and is insulated from its surroundings. The rod has an excess charge Q uniformly distributed along its length. Assume the electric potential to be zero at infinite distances from the rod. Ifk is the constant in Coulomb’s law, the electric potential at a point P along the axis of kQ multiplied by the rod and a distance / from one end is [B.H.U-2012] +++++++ ·++++ 2 (a) 9 (b) (c) 3. (d) In 2

The long thin cylindrical glass rod shown below has length l and is insulated from its surroundings. The rod has an excess charge Q uniformly distributed along its length. Assume the electric potential to be zero at infinite distances from the rod. Ifk is the constant in Coulomb’s law, the electric potential at a point P along the axis of kQ multiplied by the rod and a distance / from one end is [B.H.U-2012] +++++++ ·++++ 2 (a) 9 (b) (c) 3. (d) In 2

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

See similar textbooks

Related questions

Q: There is a +8.7 µC point charge at the origin and a -9.7 µC point charge at coordinates (5.0 cm, 0,…

Q: Consider a solid sphere of radius R = 0.4 m that is uniformly charged with ρ = -15 μC/m3. What is…

A: Given data: A solid sphere is given. The radius of the sphere is, R= 0.4 m The volume charge density…

Q: In a soft condensed matter experiment it is desired to generate a concentration gradient of sodium…

A: please see the next step for solution

Q: An isolated charged soap bubble of radius Ro = 7.75 cm is at a potential of Vo = 275.0 volts. If the…

Q: Find the electrical potential V for a linear charge of length l and charge density pl at a point b…

Q: Could you help me to solve the following problem step by step? Thank you very much in advance. Over…

A: The Electric field is defined as the derivative of the electric potential' E = dVdr A) Given:…

Q: Positive charge Q is distributed uniformly along the x axis from x = -a/2 to x = +a/2. Point P is on…

A: Let Q denotes the positive charge distributed over the length a, r denotes the distance of point P…

Q: A stick with a varying linear charge density of λ = (14 - 1x) nC/m lays on the x axis from x = 6 m…

Q: Calculate the potential at the point P at a distance D=2.07 m from one end of the horizontal rod.…

Q: For a sphere of radius R = 12.1 m that is charged with a non-uniform volume charge density: p(r) =…

A: The electric potential at a distance r=8.5 m from the center of the sphere is approximately 21.01 V

Q: conducting sphere of radius R carries a net positive charge Q, uniformly distributed over the face…

A: electric field inside a conducting sphere is =0, as charge inside the conducting sphere is zero…

Q: Two rods of equal length L=1 m form a symmetric cross. The horizontal rod has a charge of Q=400 C,…

A: To answer: The total potential

Q: The electric potential in a certain region is V = α x^2y^2 + β z^2(x^2 − γ) + δ y^3z , where α = 8…

A: Given: The Electric potential in a certain region V=αx2y2+βz2(x2-γ)+δy3zwhere:α=8 V/m4 , β=4.6 V/m4…

Q: A rod of length L = 0.55 m is placed along the x-axis with its center at the origin. The rod has a…

A: The electric potential at a point due to a point charge q at a distance r is given by:,Where is…

Q: Charge Q-8.0x10" C is distributed uniformly throughout a spherical insulating shell of radius R =…

A: Charge Radius Distance r = 19 cm = 0.19 m.

Q: The figure shows a thin plastic rod of length L = 12.5 cm and uniform positive charge Q = 51.0 fC…

Q: A calculator is set on top of a book and the book is then pushed so that it slowly accelerates…

A: Given person is pushing the book without touching the calculator and book is accelerating with…

Q: The electric potential in a particular area varies with position as V(x) = ax2 - bx + c, where a =…

A: The electric field strength is the negative of the potential gradient.

Q: ats. Find expressions for the components of the electric field in this region.

Q: R= 30 cm OP- 40 cm D.

Q: Chapter 25 Q178: Three circular, nonconducting arcs of radius R = 3 cm.The charges on the arcs are…

Q: The charge density on a disk of radius R = 12.2 cm is given by a=ar, with a = 1.34 μC/m3 and r…

Q: An electric potential produced by some distribution of charge in a region is given by the equation…

A: An object is said to be charged if it has an excess of either the negative or the positive charges.…

Q: A long cylindrical insulating shell has an inner radius of a=1.41 m and an outer radius of b=1.6 m.…

Q: Three concentric spherical conductive shells of radii 5 cm, 10 cm, and 15 cm are charged with 7 μC,…

A: Consider the diagram of the concentric spherical shells.

Q: A rod of length L is lying on x-axis with left end at the origin and has a non-uniformly linear…

Concept explainers

Electric Charges and Fields

One of the fundamental properties is the electromagnetic property. Charge cannot be destroyed by any process and this contributes formally to the law of charge conservation.

Question

r(cm)
The long thin cylindrical glass rod shown below has length/ and is insulated from its surroundings. The rod has
an excess charge Q uniformly distributed along its length. Assume the electric potential to be zero at infinite
distances from the rod. Ifk is the constant in Coulomb's law, the electric potential at a point Palong the axis of
the rod and a distance / from one end is
kQ
multiplied by
[B.H.U-2012]
+++++-
++++
2
(a)
9
(b)
(c)
3
(d) In 2

Expert Solution

This question has been solved!

Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.

This is a popular solution!

SEE SOLUTION Check out a sample Q&A here

Step 1

VIEW

Step 2

VIEW

Step 3

VIEW

Trending now

This is a popular solution!

Step by step

Solved in 3 steps with 3 images

SEE SOLUTION Check out a sample Q&A here

Knowledge Booster

Learn more about

Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, physics and related others by exploring similar questions and additional content below.

Similar questions

A plastic rod has been bent into a circle of radius R = 5.5 cm. It has a charge q1 = +4.2 pC uniformly distributed along three-quarter of its circumference and a charge q2 = -4q1 uniformly distributed along the rest of the circumference (see below). 92 R. Assuming V = 0 at infinity, what is the electric potential at point P, which is on the central axis of the circle at distance D = 6.5 cm from the center? Express your answer in volts, to at least one digit after the decimal point.
Consider a ring of charge in the x-y plane of radius 2.7 m, centered at the origin. The charge per angle around the ring is given by dQ/dα = a (1 - cos α) (nC/rad), where a = 8.4 nC/rad. Calculate the electric potential along the z axis at z = 5.8 m, in V. Use k = 9 x 109 N m2 / C2. (Please answer to the fourth decimal place - i.e 14.3225)
A plastic rod has been bent into a circle of radius R = 5.03 cm. It has a charge Q, = +7.42 pC uniformly distributed along one-quarter of its circumference and a charge Q, distributed along the rest of the circumference (see the figure). With V = 0 at infinity, what is the electric potential (a) at the center C of the circle and (b) at point P, which is on the central axis of the circle at distance D = 6.91 cm from the center? -6Q1 uniformly P, Q2 R (a) Number Units (b) Number Units Click if you would lik
Imagine three concentric spherical conductive shells of radii 5 cm, 10 cm, and 15 cm charged with 4 µC, 11 µC, and -15 µC, respectively. What is the electric field at r=1.4 cm, r=12 cm, and r=21.8 cm? V/m, Enter an exact number. E1 = E2= V/m, E3= V/m. What are the electric potentials at these points? V1 = V, V2= V, V3= V.
A charged conducting spherical shell of radius R = 3 m with total charge q = 23 μC produces the electric field given by E⃗ (r)={014πϵ0qr2r̂ forforr<Rr>R(PICTURE ATTACHED OF EQUATION) a. Enter an expression for the electric potential inside the sphere ( r < R ) in terms of the given quantities, assuming the potential is zero at infinity. V(r)= b. Calculate the electric potential, in volts, at radius r inside the charged shell. V(r) =
Consider two separate systems with four charges of the same magnitude q = 16 µC arranged in the vertexes of a square of length h = 35 cm, see the picture below. Calculate the electric potential at the center of the square (points A and C) and at the middle of the bottom side of the square (points B and D). y y h h А. C. h В D b- The potential at point A, VA = 2320457.1x Units v The potential at point B, Vg = 2378380.8 Units V The potential at point C, Vc = 0 Units V The potential at point D, V, = -908380.8: Units v How much work is required to move a -12 µC charge from point A to point B? The work required, WAs =|-0.7349 X Units J How much work is required to move a -12 µC charge from point C to point D? The work required, Wc-o = 10.90 Units J
An isolated charged soap bubble of radius Ro = 4.65 cm is at a potential of V= 283.0 volts. If the bubble shrinks to a ridios that is 39.0% of the initial radius, by how much does its electrostatic potential energy U change? Assume that the charge on the bubble is spread evenly over the surface, and that the total charge on the bubble remains constant. AU = Upd- Unl = TOOLS x10
Throughout this problem, consider a charge configuration consisting of a proton fixed in place at position (x,y) = (-1nm, -1nm) and an electron fixed in place at point (x,y) = (1nm, 1nm). Draw the configuration of charges described above, and without calculation, sketch an estimate of what you believe the graph of electric potential V (x) looks like as a function along the x-axis from x = -10nm to x= 10nm. NOTE: it is helpful to draw two diagrams. One representing the location of charges in physical (x,y) space, and the other representing the function of the potential V(x), that you create by estimating the electric potential at various locations along the x-axis.
The electric potential is given by the following expression: V(x, y, z) = x²yz + 2y²z, where V is in volts. Determine the electric field (magnitude and direction) at point (1, 1, 2).
In a certain region of space, the electric potential is V(z,9,2) = Czy – Ar + By %3D where A, B and C are positive constants. Calculate the r, y and z components of the electric fiekd.
A rod of length L = 4.00 m with uniform charge of 9.50 nC/m is oriented along the y axis as shown in the diagram. P, (a) What is the electric potential at the location P1 whose coordinates are (0, -6.00 m)? V (b) What is the electric potential at the location P2 whose coordinates are (6.00 m, 2.00 m)?
It is known that the electric quantity Q is uniformly distributed on the spherical surface of radius R, that is, the electric charge per unit area isQ/4piR^2Find the electric potential distribution generated by this charged sphere in space.