A point charge of +2 × 10^-6C is placed at the origin of coordinates. A second of -3.0 × 10^-6C is placed on the x-axis at x=100cm.(a) At what point on the x-axis will the absolute potential be zero (b) what is the difference in potential between the two following points on the x-axis: point A at x=0.1m and point B at x=0.9m?(c) which point is at the higher potential

Q: (a) Find the electric potential difference VB - VA due to a point charge 91 = -2.06 nC that is 0.300…

A: charge (q1) = -2.06 nC distance of charge from location A = 0.300 m distance of charge from location…

Q: a b i p a +2Q Three colinear point charges are positioned as shown. If Q = 24 nC, a = 4 cm, and b =…

A:

Q: Two charges 5 x 10^(-8) C and - 3 x 10^(-8) C are located 16 cm apart. At what point (s) on the line…

A:

Q: 3.4 μC and -2.6 μC charge are placed 2.5 cm apart. At what points along the line joining them is (a)…

A: Electric field due to point charge E = KQ/r2 EElectric potential due to point charge V = KQ/r

Q: a) Find the electric potential difference Vg - Va due to a point charge q1 = -2.48 nC that is 0.280…

A: Electric potential due to charge distribution

Q: a) What is the potential 2 nm from a point charge of +6e? [4.3 V] b) How much potential energy is…

A: charge (q) = 6e Distance (d) = 2 nm

Q: Identical 7 μC charges are located on the x-axis at x = 4 m and x = -4 m. Point A is on the y-axis…

A:

Q: The amount of work done due to carrying a q=+4μCq=+4μC charge from point AA to point BB is equal to…

A: Given The charge is given as q=+4 μC=+4×10-6 C Work done is W=100 μJ=100×10-6 J   We have to find…

Q: Point charges q1 = 75 nC, q2 = -36 nC, and q3 = 16 nC are arranged in Figure. (d) Find the potential…

A: Given-q1=75 nC=75×10-9Cq2=-36 nC=-36×10-9Cq3=16 nC=16×10-9Ck=9×109 Nm2/C2

Q: The figure shows a uniform electric field E = 90i in units of V/m. If point A is horizontally 15 cm…

A: Given: Electric field, E=90i^ V/m Distance between points A and B, d=15 cm To find: Potential…

Q: The potential difference across the two concentric metal spheres is 900 V and the charge on each…

A:

Q: The figure shows two charges each placed 4.4 m away from the origin. Each is 3.7 µC in size, with…

A: Hey, there are multiple subparts posted, we are authorized to answer three subparts at a time, since…

Q: A uniform electric field has magnitude E and is directed in the negative x-direction. The potential…

A: a) The direction of the electric field directs from the higher potential to the lower potential. So,…

Q: The drawing shows four point charges. The value of q is 2.0 µC, and the distance d is 0.54 m. Find…

A:

Q: The drawing shows six point charges arranged in a rectangle. The value of g is 7.50 μC, and the…

A:

Q: A 3.4 µC and a -2.6 µC charge are placed 2.5 cm apart. At what points along the line joining them is…

A: (a) The electric field due to the positive charge is away from the charge and due to negative charge…

Q: The drawing shows six point charges arranged in a rectangle. The value of q is 3.59 μC, and the…

A: We need to find the electric potential at point P, which is the centre of the shown rectangle.

Q: Three point charges are arranged, as shown in the figure. Calculate the electric potential at point…

A: Basic Details The electric potential due to point charge depends on the magnitude of charge, the…

Q: Consider a point charge a-1.5 uC, point A at distance dy-1.9 m from q, and point B at distance d2 -…

A:

Q: There are two charges of 82 nC and 98 nC, separated by a distance d. If the net electric potential…

A: Given The charges are given as Q1=82 nC=82×10-9 C and Q2=98 nC=98×10-9 C Separation between the…

Q: the electric potential at point P due to these charges may be expressed as, taking k as Coulomb…

A: Three charges as qA=-2 μC, qB=4 μC and qC=+6 μC Coordinates of charge qA are -0.200 m, 0 m Charge qB…

Q: The drawing shows four point charges. The value of q is 1.3 μC, and the distance d is 0.84 m. Find…

A: Given, The charge q is 1.3×10-6 C The distance d is 0.84 m The electric potential is given as…

Q: The electric potential at location (r.) in polar coordinates is given as: V(r, 0) = 8r· sin(0) a.…

A:

Q: Calculate the potential difference between points A and B (V = Vb - Va)

A: given data: Charge Q1=1.2μC Charge Q2=-3.3 μC Distance between the charge Q1 and Q2, r1=0.12m…

Q: An isolated, irregularly shaped piece of platinum carries –7.23 x 10 C of charge and is in electric…

A: Platinum is metal and is a conductor. So the conductors have a basic property that the potential at…

Q: Two charges, q, = -14.5 nC and q2 = 30.0 nC, are separated by a distance d = 1.50 cm as shown in the…

A: in the question itis given that q1=-14.5nC, q2=30nCthey are placed on a equilateral triangle of side…

Q: A small spherical object carries a charge of 2.50 nC. (Note: Assume a reference level of potential V…

A: Charge on object Q = 2.50 nC = 2.50 * 10-9 C We need to find the distance from center of this object…

Q: The drawing shows six point charges arranged in a rectangle. The value of q is 8.16 μC, and the…

A: Draw the schematic diagram of the system.

Q: A solid metallic sphere has a charge of –2.00 nC and the surface is being held at a potential of…

A: We have a metallic sphere of charge Q=-2nC and radius r=5cm, the surface is being held at 12 V. We…

Q: The amount of work done due to carrying a q=+4μC charge from point A to point B is equal to w=100μJ.…

A: charge (q) = 4μC work (W) = 100μJ

Q: Point charges ?1= 5×10−3 C and Q2= − 3×10−3 are 50 cm apart. At what distances from ?2 Is the…

A:

Q: Three point charges are on the x axis; 9, is at the origin, g, is at x = 13.00 m, and gz is at x =…

A:

Q: A total electric charge of 10 nC is distributed uniformly over the surface of a metal sphere with a…

A:

Q: Consider a point charge of value 59 × 10-5 C.    Part (a)  At what distance from the 59 × 10-5 C…

A: Given that,q=59×10-5 CV=68 Vfor part b,distance = r= 6m

Q: :  Consider a point charge of value 78 × 10-5 C. Part (a)  At what distance from the 78 × 10-5 C…

A: We know that the formula of the potential  is given as  V = kqr         ---------------- eq 1  where…

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.