Consider the final arrangement of charged particles shown in the figure below. What is the work necessary to build such an arrangement of particles, assuming they were originally very far from one another? (Let q1 = 7.5 nC, q2 = 3.0 nC and q3 = −19.5 nC.)
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Consider the final arrangement of charged particles shown in the figure below. What is the work necessary to build such an arrangement of particles, assuming they were originally very far from one another?
(Let q1 = 7.5 nC, q2 = 3.0 nC and q3 = −19.5 nC.)
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- Two charges Q₁ = 6.2μC and Q2 = 5.9μC are placed on the two corners of a rectangle with the sides a = 6.9mm and b = 14.3mm as shown in the figure below. How much work is required to 5.3mm away from = bring a thir charge Q3 = 5.1μC from infinity to point P that is a distance c Q₁? Please take k J or N.m. Q₁ a - 9.0 x 10°N. m²/C² and express your answer using one decimal place in units of b P Q2 0.2Consider the final arrangement of charged particles shown in the figure below. What is the work necessary to build such an arrangement of particles, assuming they were originally very far from one another? (Let 91 = 6.5 nC, 92 = 2.5 nC and 93 = -15.5 nC.) J (-12.0 cm, 0) 91 (-12.0 cm, -12.0 cm) 93 (12.0 cm, 0) 92 XThree point-like charges are placed at the corners of a rectangle as shown in the figure, a = 18.0 cm and b = 50.0 cm. Find the minimum amount of work required by an external force to move the charge q2 to infinity. Let q1 = −2.90 μC, q2= +3.00 μC, q3= −4.90 μC.
- Two charges Q1 = 2, 3μC and Q₂ = 5, 1μC are placed on the two corners of a right triangle with the sides a = 7,5mm and b = 13, 8mm. How much work is required to bring a third charge Q3 = 6,6μC from infinity to point P that is a distance c away from the empty corner as shown in the figure below? Please take k = 9.0 × 10°N. m²/C2 and express your answer using one decimal place in units of J or N.m. Hint: if you use similar traingles c = a²+62 Q2 Yanıt: a C Q₁ bIn a given coordinate system shown at right, a particle with charge q = 3.6 μC sits at the origin. The coordinates of point A are (0, 5) m. The coordinates of point B are (5, 0) m. The coordinates of point C are (5, 5) m. The coordinates of point D are (5, -5) m. (a) How much work is done by the field in moving a proton from point A to point B in J? (b) How much work is done by the field in moving a proton from point C to point D in J? (c) How much work is done by the field in moving a proton from point C to point A in J? (d) How much work is done by the field in moving a proton from point D to point B in J?Two charges Q1=22µC and Q2=-25µC are placed on the corners of a right triangle with the sides a=13mm and b=25mm. How much work must be done to bring a third charge Q3=5µC from infinity to point P that is a distance c away from the empty corner as shown in the figure below. Express your answer in units of Joules using zero decimal places. Take Coulomb constant as k=9.0x109 N.m2/c2. Please do not forget the minus sign if your answer is negative. b2 Hint: If you use similar triangles c = Vą? + b² Q. P. а Q1 b
- In a given coordinate system, a particle with charge q = 3.4 μC sits at the origin. The coordinates of point A are (0, 5) m. The coordinates of point B are (5, 0) m. The coordinates of point C are (5, 5) m. The coordinates of point D are (5, -5) m. How much work is done by the field in moving a proton from point A to point B in J? How much work is done by the field in moving a proton from point C to point D in J? How much work is done by the field in moving a proton from point C to point A in J? How much work is done by the field in moving a proton from point D to point B in J?Two charges, qi =-14.0 mC and q2 =8.4 mC are separated by distance r =6.6 m. What is the change in the electric potential energy of the system of these two charges if the separation changes to 0.7r? Provide your answer in kilojoules, with a precision of one place after the decimal.Answer option D only. I will rate accordingly.
- Consider the two charges q1 = 7.50 µC and q2 = -2.50 µC as shown in the figure below. You may assume that the electric potential energy is zero when the two charges are infinitely far apart. (a) What is the electric potential energy of this system? (b) What is the electric potential at point A? (c) What is the change in the electric potential energy of the system if a third charge q3 = -5.00 µC is brought from infinity to point A? A d = 30.0 cm 42 d = 30.0 cmThere is a distribution of charges as evidenced below where q₁ = +5.0 nC and q2 = -3.0 nC. If a third charge of magnitude 2.00 nC is placed between the first two charges at a distance of 15.00 cm from the origin along the x-axis, what is the potential energy of the system? You may assume that the third charge originated from an infinite distance away. Now if we wanted the potential energy of the system to be zero, where should the third charge be placed (hint: you will need to simplify and then solve a quadratic or you can use solver in excel)? Y 91 93 x=15.00 cm 92 x=30.00 cm XThree charged particles of q₁ = 30.0 nC, q₂ = -30.0 nC, and q3 = 15.0 nC are placed on the y-axis, as shown in the figure. 9₁ 9₁ 9₁ x Charge q₁ has the coordinates (0, 8.00 cm), 9₂ has the coordinates (0, -8.00 cm), and q3 is located at the origin. (a) Find the electric potential energy (in J) of the configuration of the three fixed charges. (b) A fourth particle, with a mass of 1.98 x 10-13 kg and a charge of 94 = 60.0 nC, is released from rest at the point (6.00 cm, 0). Find its speed (in m/s) after it has moved freely to a very large distance away. m/s