Find the work needed to bring a charge of + 5.9 nC (nano Coulomb, 10-9 C) from infinity to a point 28.7 cm from a charge of + 0.039 μC in vacuum. Enter the numerical answer in micro Joules (μJ

Q: How can I get the solutions to this problem? (Answer is given)

A: The potential energy   U of system of three charges is given…

Q: Three identical point charges (+33 pC) are placed at the corners of an equilateral triangle that has…

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Q: Two point charges, q1-60µC and q2=150µC are separated by a distance of 4 m. What is the work…

A: Given : q1 =60 μC; q2 = 150μC; distance between the charges is d =4m k=8.9876 x 109 N m2 C2

Q: Consider the group of three +2.4nC point charges shown in the figure .What is the electric potential…

A: Given data: The magnitude of charge is q=+2.4 nC. The distance between two charge is r1=4 cm. The…

Q: Calculate the electric potential energy and work, given that the radial distance between two charges…

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Q: A pair of parallel plates is charged by a 24-V battery. How much work is required to move a charge…

A: The work done by the force in transferring a unit positive charge from that point to the reference…

Q: A point charge +4.0*109 C is moved to left between uniform electric field of points. A and B at a…

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Q: In the figure below, what is the work done in bringing a charge of +6.11 μC from infinity to point…

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Q: The potential difference between the two points is 471 μV. If 535 mJ of work are required to move a…

A: potential  difference = ∆V= 471 μV.= 471 X 10-6 V Work = W = 535 mJ = 535 X 10-3 J charge = q = ?

Q: If a charge of magnitude 7.9 X 10^-17 C is being held in place 3.5 X 10^-8 m from a change of -2.1 X…

A: Step1 - Here we will solve Question(1). Given -  (q1) = 7.9×10-17 C               (q2) = -2.1×10-19C…

Q: he amount of work required

A: The expression for the electric potential due to a point charge is given by,

Q: tivity 2: Electric Potential Energy 1. Two-point charges Q1 = 4.5 µC and Q2 8.5 pC are initially…

A: Activity 2:-  1. Given data: Magnitude of charge 1 is, Q1=4.5 μC=4.5×10-6 C. Magnitude of charge 2…

Q: Find the electric potential energy ( in units of J) stored in a system composed of two point charges…

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Q: Three charges are in a line.  One charge has size 2.6 x 10-4 C and is located at x = -6.2 m.…

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Q: object with a net charge of -1.68 coulombs is moved vertically near the earth's surface where the…

A: Given  Electric field E = 92 N/C  Gravitational field = 9.81 N/kg  Stored electric potential energy…

Q: A conducting spherical shell of inner radius 4.00 cm and outer radius 5.00 cm is concentric with a…

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Q: Two charges Q1=22µC and Q2=21µC are placed on a semi-circle with a radius R=5mm as shown in the…

A: Given: Charge magnitude are: Q1=22 μC=22×10-6 C Q2=21 μC=21×10-6 C Q3=6 μC=6×10-6 C Radii,…

Q: If 500 J of work are required to carry a charged particle between two points with a potential…

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Q: Three identical point charges (+34 µC) are placed at the corners of an equilateral triangle that has…

A: Given: charges q1=q2=q3=34μC=34*10-6C side of equilateral triangle = distance between charges r = 20…

Q: Two point charges of values +3.4 and +6.6 mC, respectively, are separated by 0.20 m. What is the…

A: Potential energy is given by the formula, U = ke *q1 *q2 /r Given, q1 = +3.4 mC q2 = +6.6 mC r =…

Q: Two charges Q1=20ụC and Q2=22µC are placed on the corners of a rectangle with the sides a=14mm and…

A: Electrostatic potential due to a charge Q at a point r distance away is:V=kQr………(1)where,k is…

Q: Two point charges, Q = +5.40 μC and q = -4.20 μC, are separated by 5.0 m. What is the electric…

A: Given Q = +5.40 μC  q = -4.20 μC  seperation (d) = 5 m  Electric potential energy is goy as :-  U =…

Q: In a rectangular coordinate system, point charges of +2 µC,+4 µC, +5 µC and -4 µC are placed at the…

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Q: How much electrical energy is needed to bring two charges Q₁= 5.5x10^-7C and Q₂-1.7x10^-6C from…

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Q: What distance must separate two charges of + 5.6×10-4C and -6.3×10-4 C in order to have an electric…

A: The equation for the magnitude of the electric potential energy between two point charges is given…

Q: Two charges Q1= 19 µC and Q2= 4 µC are placed on the two corners of a square as shown in the figure…

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Q: Three point charges are fixed as shown in the figure. q1= - 4.0 µC, q2=9.0 µC, and q3=18 µC. Find…

A: Given: The charge q1 is -4.0 μC. The charge q2 is 9.0 μC. The charge q3 is 18 μC.

Q: Two charges Q1=20ụC and Q2=22µC are placed on the corners of a rectangle with the sides a=14mm and…

A: Given that:- Q1=20uC Q2=22uC Q3=9uC

Q: A charge q₁ = 3.20 x 10°¹7 C is located ro = 21.5 mm from a charge q2 = -8.00 x 10° 19 C. How much…

A: Given value--- q1 = 3.2 × 10-19 C. q2 = 8 × 10-19 C. r0 = 21.5 mm. rf = 45 mm. We have to find---…

Q: Find the electric potential energy (in units of J) stored in a system composed of two point charges…

A: The electric potential energy between two point charges is calculate by V=kq1q2r Here, Coulomb…

Q: Two point charges are located at two of the vertices of a right triangle, as shown in the figure. If…

A: The potential due to the charge 2q is,

Q: A conducting spherical shell of inner radius 4.00 cm and outer radius 5.00 cm is concentric with a…

A: we have V(3.5)=∫∞5Eoutdr+∫43.5Eindr the region between r = 4 and r=5 is the metal where field is…

Q: Two charges of 18 µC each are placed on the corners of an equilateral triangle of side 0.6 m.  How…

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Q: Three charges are located in the x-y plane (see plot below), with Q1 = -6.00 µC, Q2 = 7.00 µC and Q3…

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Q: A charge of 28.0 nC is placed in a uniform electric field that is directed vertically upward and…

A: Given:- A charge 28.0 μC is placed in the uniform electric field that is directed vertically upward.…

Q: A uniform electric field of magnitude 4.3×105 N/CN/C points in the positive x direction. Find the…

A: Given that, The magnitude of uniform electric field = 4.3×105 N/C (in +x direction) When a charge…

Q: 1. The magnitude of the electric field between two charged, parallel plates is 3.65x10' N/C. If the…

A: 1. The potential energy is related to potential difference by the formula, P.E=q △V where q is…

Q: Three point charges are fixed as shown in the figure. q1= - 4.0 µC, q2=9.0 µC, and q3=11.8 µC. Find…

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Q: An isolated charge Q = 5 ×10–6 C is placed in a region and it creates an electric field around it.…

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Q: Determine the total potential energy stored, in microjoules, in a cylinder of radius 8 m and height…

A: Given:-            radius of the cylinder = 8 m.             height of thecylinder = 9 m.  E = 15 ax…

Q: t takes 4.2 x 10-3 J of work to move 1.2 x 10-6C of charge from point X to point Y in an electric…

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Q: 9. An electric potential field is produced by point charges 1 mC and 4 mC located at (-2, 1, 5) and…

A: Between charges Displacement vector = (1+2)i + (3-1)j + (-1-5) k…

Q: A pair of parallel plates is charged by a 24-V battery. How much work is required to move a charge…

A:

Q: How much work does a uniform electric field of strength, 3,000 N/C, perform on a +2.0-µC point…

A: Given data:  Electric field (E) = 3000 N/C Charge (q) = +2 μC = +2×10-6 C Distance (d) = 30 cm =…

Q: What is the work done on a 3.00 µC when it moves 0.20 m along the direction of a 5.0 x 106 N/C…

A: q=Charge=3×10-6 CE=Electric field=5×106 N/Cs=Displacement=0.2 m

Q: Find the charge on the concentric Gaussian surface of radius r = 0.15 m of an insulated conductive…

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Q: Three point-like charges are placed at the corners of a rectangle as shown in the figure, a = 18.0…

A: Given  q1= -2.90 micro Columb      = -2.90 × 10 -6 C q2. = +3.0 ×10 -6C q3= -4.90 ×10-6 C a= 18.0cm…

Q: Two charges Q1=22µC and Q2=-25µC are placed on the corners of a right triangle with the sides a=13mm…

A: To bring a charge q1 from infinity to a point r1 we require no work because there is no interacting…

Q: Determine the total potential energy stored, in microjoules, in a cylinder of radius 9 m and height…

A: Given , The radius of a Cylinder= 9m  The height of a cylinder=6m Electric field E=18 ax +12 ay +10…

Q: Two charges Q1= 49 µC and Q2= 28 µC are placed on the two corners of a square as shown in the figure…

A: a = 40 mm K = 9*109 Nm2/C2

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.