ConstantsIt was shown in Example 21.11 (Section 21.5) in the textbook that the electric field due toan infinite line of charge is perpendicular to the line and has magnitude E=X/2T€0r.Consider an imaginary cylinder with a radius of r = 0.225 m and a length of l = 0.500 mthat has an infinite line of positive charge running along its axis. The charge per unit lengthon the line is A = 5.35 µC/mWhat is the electric flux through the cylinder due to this infinite line of charge??=N. m²/CSubmitRequest AnswerPart BWhat is the flux through the cylinder if its radius is increased to r = 0.575 m ??=N- m² /CSubmitRequest AnswerPart CWhat is the flux through the cylinder if its length is increased to l= 0,880 m??N. m? /CSubmitRequest Answer

Here given an infinite line charge. The electric field for this line is given as E.Now the radius of…

It was shown in Example 21.11 (Section 21.5) in the textbook that the electric field due to an infinite line of charge is perpendicular to the line and has magnitude E= A/2xeor. Consider an imaginary cylinder with a radius of r = 0.225 m and a length of I= 0.500 m that has an infinite line of positive charge running along its axis. The charge per unit length on the line is A = 5.35 uC/m What is the electric flux through the cylinder due to this infinite line of charge? ? N- m /C Submit Reguest Answer • Part B What is the flux through the cylinder if its radius is increased to r=0.575 m? N- m /C Submit Request Answer • Part C What is the flux through the cylinder if its length is increased to l = 0.880 m ? V AEd N- m /C Submit Reguest Answer

It was shown in Example 21.11 (Section 21.5) in the textbook that the electric field due to an infinite line of charge is perpendicular to the line and has magnitude E= A/2xeor. Consider an imaginary cylinder with a radius of r = 0.225 m and a length of I= 0.500 m that has an infinite line of positive charge running along its axis. The charge per unit length on the line is A = 5.35 uC/m What is the electric flux through the cylinder due to this infinite line of charge? ? N- m /C Submit Reguest Answer • Part B What is the flux through the cylinder if its radius is increased to r=0.575 m? N- m /C Submit Request Answer • Part C What is the flux through the cylinder if its length is increased to l = 0.880 m ? V AEd N- m /C Submit Reguest Answer

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: Consider an infinite line of charge, with linear charge density +22.5 x 10-12 C/m. This line of…

A: The position vector of the point P where electric field is to be found w.r.t the line of charge 1 at…

Q: An electric dipole is formed from ±1.00nC charges spaced 4.00 mm apart. The dipole is at the origin,…

Q: An electron flies into a constant electric field (along the direction of E-field). The initial…

Q: he plates of a parallel-plate capacitor are 3.50 mmmm apart, and each carries a charge of magnitude…

A: Given, Separation between the plates, d = 3.50 mm magnitude of the charge, q = 75.0 nC electric…

Q: A uniformly charged rod of length L = 1.2 m lies along the x-axis with its right end at the origin.…

A: L = 1.2 m , Q = 6.8 μC , a = 2.4 m , Now , we know , Electric field (E) = KQL1a- 1L + a…

Q: We consider a conducting sphere of radius a = 1m in a uniform electric field E0= 1000 V/m. A uniform…

A: Carnot CycleThe Carnot cycle is a theoretical thermodynamic cycle that provides an upper limit for…

Q: = It was shown in Example 21.11 (Section 21.5) in the textbook that the electric field due to an…

Q: Problem 2: A point mass of charge q> 0 moves at 35° to a uniform electric field E for a total…

Q: An alpha particle (a helium nucleus) is traveling along the positive x-axis at 1100 m/s when it…

A: Newton's second law of motion states that the acceleration of an object is directly proportional to…

Q: This question checks that you can use the formula of the electric field due to a long, thin wire…

A: Given Data: Linear charge density, λ=-2.3×10-7 Cm Distance of point from wire, r=10 cm=0.1 m…

Q: In figure 2, an upwardly oriented uniform electric field E⃗ of a magnitude of 2.0 × 103 N / C has…

A: (a) If the electron will hit the upper plane that means, y=d. Now the initial velocity (u) of the…

Q: A uniform electric field of magnitude 2000 N/C has been set up between two horizontal plates by…

A: The electric field is: E = 2.0×103 N/CThe mass of an electron is: m =9.109×10-31 kgThe charge on an…

Q: Problem 7: A cylindrical capacitor is made of two concentric conducting cylinders. The inner…

A: Given: The radius of the inner cylinder is R1=19 cm. The radius of the outer cylinder is R2=75 cm.…

Q: CP At time t = 0 a proton is a distance of 0.360 m from a very large insulating sheet of charge and…

A: We have to find the speed of proton at t=5×10-8 s We know the distance at which the proton is placed…

Q: Two large rectangular sheets of charge of side L = 2.0 m are separated by a distance d = 0.065 m.…

Q: A uniform electric field has a magnitude of 2.0×10^4 N/C and points to right of the electron is…

Q: The following figure shows a long thin-walled metal tube with an external radius of R = 3 cm and a…

Q: Problem 9: A cylındrical capacitor 1s made of two concentric conducting cylınders. The inner…

A: Using the Gauss’s law, in the region R1 < r < R1, first we will draw the Gaussion surface at r…

Q: ided shows a section of a very long rod of radius a = 1.11 mm and linear charge density 4.49 nC/m.…

Q: 10. In the figure an electron (e) is to be released from rest on the central axis of a uniformly…

Q: The drawing shows an electron entering the lower left side of a parallel plate capacitor and exiting…

Q: The figure shows two charged particles on an x axis: -q = -3.20 × 10-19 C at x = -5.00 m and q =…

A: Use the Pythagoras theorem to find the distance between the point P and the charge q is

Q: parallel-plate capacitor is formed from two 1.99 x 1.99 cm electrodes spaced 2.07 mm apart. The…

A: Given: The size of the plate is 1.99x1.99 cm2. The separation between plates is 2.07 mm. The…

Q: An electron flies into a constant electric field (along the direction of the lines of E-field). The…

Q: Consider two infinite planes of charge, both parallel to the x-y plane. The first plane is located…

Q: oint P sets above an infinite line of charge 2 m in the positive z direction. The line of charge…

A: Distance of point P, r = 2 mCharge density, λ = -5.0 x 10⁶ C/mField at P, E = ?

Q: What is the magnitude of acceleration of an electron in a uniform electric field of (3.70x10^1) N/C…

Q: Each plate of an ideal air-filled parallel-plate capacitor has an area of 1,424 mm² and the…

Q: (a) A spherical metal conductor (Q = 7.5C) is placed r = 0.9 m from an identical conductor with a…

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

100%

Constants
It was shown in Example 21.11 (Section 21.5) in the textbook that the electric field due to
an infinite line of charge is perpendicular to the line and has magnitude E=X/2T€0r.
Consider an imaginary cylinder with a radius of r = 0.225 m and a length of l = 0.500 m
that has an infinite line of positive charge running along its axis. The charge per unit length
on the line is A = 5.35 µC/m
What is the electric flux through the cylinder due to this infinite line of charge?
?
=
N. m²/C
Submit
Request Answer
Part B
What is the flux through the cylinder if its radius is increased to r = 0.575 m ?
?
=
N- m² /C
Submit
Request Answer
Part C
What is the flux through the cylinder if its length is increased to l= 0,880 m?
?
N. m? /C
Submit
Request Answer

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 2 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 charge distribution creates the following electric field throughout all space: E(r, 0, q) = (3/r) (r hat) + 2 sin cos sin 0(theta hat) + sin cos p (phi hat). Given this electric field, calculate the charge density at location (r, 0, p) = (ab.c).
An alpha particle (a helium nucleus) is traveling along the positive x-axis at 1200 m/s when it enters a cylindrical tube of radius 0.400 cm centered on the x-axis. Inside the tube is a uniform electric field of 5.50 10-4 N/C pointing in the negative y-direction. How far does the particle travel before hitting the tube wall? Neglect any gravitational forces. Note: m? = 6.64 10-27 kg; q? = 2e. m
A proton is projected horizontally midway between two parallel plates that are separated by 0.47 cm. The uniform electric field has magnitude 6.0 × 105 N/C between the plates. If the plates are 5.6 cm long, find the minimum speed of the proton if it just misses the lower plate as it emerges from the field. The gravitational force on the proton can be neglected. O 6.2 x 106 m/s 12 x 106 m/s 11 x 106 m/s 7.4 x 106 m/s 8.7 x 106 m/s Tw E
In this example, we will analyze the motion of an electron that is released in an electric field. The terminals of a 100 V battery are connected to two large, parallel, horizontal plates 1.0 cm apart. The resulting charges on the plates produce an electric field E in the region between the plates that is very nearly uniform and has magnitude E = 3.0×104 N/C. Suppose the lower plate has positive charge, so that the electric field is vertically upward, as shown in (Figure 1). (The thin pink arrows represent the electric field.) If an electron is released from rest at the upper plate, what is its speed just before it reaches the lower plate? How much time is required for it to reach the lower plate? The mass of an electron is mẹ = 9.11 x 10-31 kg. The thin arrows represent the uniform electric field. 1.0 cm 100 V In this example, suppose a proton (mp = 1.67 × 10-27 kg) is released from rest at the positive plate. What is its speed just before it reaches the negative plate? Express your…
A non-conducting sphere 15.0cm in diameter has a total charge of 2.25µC distributed uniformly throughout its volume. Plot the magnitude of the electric field, E, as a function of the distance, r, from the center of the sphere, from r =0cm to r =30.0cm. (The graph must be madeon computer)
Given the magnitude of an electric field directed downward equals 100 N/C. If two point charges (qA and qB), qA=2000 V and qB= 1000V. The charges are located 10 cm apart. What is the field strength at qA?
An isolated charged conducting sphere has a radius R = 13.0 cm. At a distance of r = 24.0 cm from the center of the sphere the electric field due to the sphere has a magnitude of E = 4.90 × 104 N/C. (a) What is its surface charge density (in µC/m²)? μC/m² (b) What is its capacitance (in pF)? pF (c) What If? A larger sphere of radius 26.0 cm is now added so as to be concentric with the first sphere. What is the capacitance (in pF) of the two-sphere system? pF
2 narrow, flat metal plates are positioned vertically, 20.00 cm. The first plate has a positive charge with charge density σ=+630.0 mC/m2 and a second plate has an equal but opposite negative charge with charge density σ=-6300.0 mC/m2 . There are also two narrow, flat metal plates positioned horizontally, 30.00 cm apart, with the top plate given a negative charge, and the bottom plate given an equal but opposite positive charge, such that the electric potential of the bottom plate is 5.00 V higher than the top plate. A small sphere with a mass of m =64.35 g, and a charge of q =22.00 mC is attached to a narrow, stiff, massless, insulating rod with a length of L= 8.00 cm, which is pivoted at point O, which is 2.000 cm from the second plate. The sphere/rod unit is angled at 5 degrees with horizontal and released from rest. Will the sphere/rod ever hit an angle of 0 degrees with the horizontal? If so, how long will it take to reach that point?
A thin, circular disk of radius R = 45 cm is oriented in the yz-plane with its center as the origin. The disk carries a total charge Q = 6.0 μC distributed uniformly over its surface. Calculate the magnitude of the electric field due to the disk at the point x = 12 cm along the x-axis.
An infinitely long line of charge has linear charge density 5 x 10-12 C/m. A proton is at distance 13 cm from the line and moving directly toward the line at speed 0.5 × 103 m/s. How close (in cm) does the proton get to the line of charge?