### Coulomb's Law Calculation Exercise**Problem Statement:**Calculate the magnitude of the Coulomb force experienced by the 2.0 μC charge, in newtons, due to the presence of the two other charges if \( x = 0.71 \) m, \( k = 9 \times 10^9 \) N m²/C². **Instructions:**1. **Find the magnitude AND the direction of the force acting on the blue charge due to the red charge; do the same for the green charge.**2. If the two forces are in the same direction, add them up to find the total force. If they are in opposite directions, subtract them.3. Be careful with the units: the microcoulombs must be converted to coulombs.4. You may want to watch the video on Coulomb's Law - how to use it first.**Diagram of Charges on a Number Line:**```+8.0 μC ------------ +2.0 μC ------------ -1.0 μC 0 x 3```- The red charge (\(+8.0 \mu C\)) is at position \(0\).- The blue charge (\(+2.0 \mu C\)) is at position \(x\).- The green charge (\(-1.0 \mu C\)) is at position \(3\).**Answer Submission:**- Enter the calculated force in the text box provided.- Click "Save and Submit" to submit your answer.**Buttons:**- "Save All Answers" - "Save and Submit"Explore the interactions between electric charges using Coulomb’s Law to enhance your understanding of the forces involved. Make sure to double-check your calculations and units for accuracy.

Red charge = Green charge = Blue charge = Separation between the blue and red charge = x = 0.71…

Calculate the magnitude of the Coulomb force experienced by the 2.0 µC charge, in newtons, due to the presence of the two other charges if x = 0.71 m. k = 9 x 109 N m2/c2. Find the magnitude AND the direction of the force actiong on the blue charge due to the red charge; do the same for the green charge. If the two forces are in the same direction, add them up to find the total force. If they are in opposite directions, subtract them. Be careful with the units: the microcoulombs must be converted to coulombs. You may want to watch the video Coulomb's Law - how to use first. +8.0 μC +2.0 μC -1.0 μC x (m) 3

Calculate the magnitude of the Coulomb force experienced by the 2.0 µC charge, in newtons, due to the presence of the two other charges if x = 0.71 m. k = 9 x 109 N m2/c2. Find the magnitude AND the direction of the force actiong on the blue charge due to the red charge; do the same for the green charge. If the two forces are in the same direction, add them up to find the total force. If they are in opposite directions, subtract them. Be careful with the units: the microcoulombs must be converted to coulombs. You may want to watch the video Coulomb's Law - how to use first. +8.0 μC +2.0 μC -1.0 μC x (m) 3

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)...

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