Question

Notify Me Bookmark

A 5.0-C charge is 10 m from a -2.0-C charge. The electrostatic force is on the positive charge is: 9.0×108 N toward the negative charge 9.0×108 N away from the negative charge 9.0×109 N toward the negative charge 9.0×109 N away from the negative charge none of these

A 5.0-C charge is 10 m from a -2.0-C charge. The electrostatic force is on the positive charge is: 9.0×108 N toward the negative charge 9.0×108 N away from the negative charge 9.0×109 N toward the negative charge 9.0×109 N away from the negative charge none of these

Image text
A 5.0-C charge is 10 m from a -2.0-C charge. The electrostatic force is on the positive charge is: 9.0 × 10 8 N toward the negative charge 9.0 × 10 8 N away from the negative charge 9.0 × 10 9 N toward the negative charge 9.0 × 10 9 N away from the negative charge none of these

Detailed Answer

0 0

Please enter your email here. You will get email when this question is answered by our tutor.

Doubtrix Logo

Problem is not yet solved!

Click on Notify me to get email when question is answered.

Join Doubtrix with 7-days free trial

  • Icon Correct & Verified Answers
  • Icon No AI-Generated Answers
  • Icon Video Solution for Difficult Questions
  • Icon Work With Experts to Reach at Correct Answers
Notify me Login Sign Up

Similar/Related Questions

Several species of bacteria, including Geobacter metallireducens, have been shown to "eat" electrons, bypassing the usual process of metabolizing sugar to obtain energy. During this process, the bacteria, which already have negatively charged cell membranes, acquire an even larger net negative charge, typically between 10.0 e and 85.0 e in magnitude. Individual Geobacter are typically 4.00 μm in diameter. What are the magnitude and the direction of the electric field of a bacterium with a net negative charge of magnitude 70.0 e at a distance of 1.80 mm from the microbe? (a) the magnitude (in N/C) N/C (b) the direction radially outward radially inward What are the magnitude and the direction of the electric force on a second bacterium of net negative charge 80.0 e distance of 1.80 mm from the first bacterium? (c) the magnitude (in N) N (d) the direction away from the first bacterium towards the first bacterium

Solution
0 0

One or more external forces, large enough to be easily measured, are exerted on each object enclosed in a dashed box shown in the figures below. Identify the reaction to each of these forces. (Select all that apply. ) (a) Contact forces force exerted by spring on wall, to the right force exerted by spring on hand, to the left force exerted by spring on wall, to the left force exerted by spring on hand, to the right (b) force exerted by wagon on handle, upward to the left force exerted by wagon on ground, downward force exerted by wagon on planet, upward force exerted by wagon on ground, upward force exerted by wagon on planet, downward force exerted by wagon on handle, downward to the left (c) C (i) force exerted by football on planet, downward force exerted by football on player, downward to the left force exerted by football on player, downward to the right force exerted by football on planet, upward (d) Field forces d force exerted by small-mass object on large-mass object, to the right force exerted by small-mass object on large-mass object, upward force exerted by small-mass object on large-mass object, to the left (e) (i) force exerted by negative charge on positive charge, to the downward force exerted by negative charge on positive charge, to the left force exerted by negative charge on positive charge, to the right (f) (i) force exerted by iron on magnet, upward force exerted by iron on magnet, to the right force exerted by iron on magnet, to the left One or more external forces, large enough to be easily measured, are exerted on each object enclosed in a dashed box shown in the figures below. Identify the reaction to each of these forces. (Select all that apply. ) (a) Contact forces force exerted by spring on wall, to the right force exerted by spring on hand, to the left force exerted by spring on wall, to the left force exerted by spring on hand, to the right (b) force exerted by wagon on handle, upward to the left force exerted by wagon on ground, downward force exerted by wagon on planet, upward force exerted by wagon on ground, upward force exerted by wagon on planet, downward force exerted by wagon on handle, downward to the left (c) C (i) force exerted by football on planet, downward force exerted by football on player, downward to the left force exerted by football on player, downward to the right force exerted by football on planet, upward (d) Field forces d force exerted by small-mass object on large-mass object, to the right force exerted by small-mass object on large-mass object, upward force exerted by small-mass object on large-mass object, to the left (e) (i) force exerted by negative charge on positive charge, to the downward force exerted by negative charge on positive charge, to the left force exerted by negative charge on positive charge, to the right (f) (i) force exerted by iron on magnet, upward force exerted by iron on magnet, to the right force exerted by iron on magnet, to the left One or more external forces, large enough to be easily measured, are exerted on each object enclosed in a dashed box shown in the figures below. Identify the reaction to each of these forces. (Select all that apply. ) (a) Contact forces force exerted by spring on wall, to the right force exerted by spring on hand, to the left force exerted by spring on wall, to the left force exerted by spring on hand, to the right (b) force exerted by wagon on handle, upward to the left force exerted by wagon on ground, downward force exerted by wagon on planet, upward force exerted by wagon on ground, upward force exerted by wagon on planet, downward force exerted by wagon on handle, downward to the left (c) C (i) force exerted by football on planet, downward force exerted by football on player, downward to the left force exerted by football on player, downward to the right force exerted by football on planet, upward (d) Field forces d force exerted by small-mass object on large-mass object, to the right force exerted by small-mass object on large-mass object, upward force exerted by small-mass object on large-mass object, to the left (e) (i) force exerted by negative charge on positive charge, to the downward force exerted by negative charge on positive charge, to the left force exerted by negative charge on positive charge, to the right (f) (i) force exerted by iron on magnet, upward force exerted by iron on magnet, to the right force exerted by iron on magnet, to the left

Solution
0 0

An infinite line of positive charge lies along the y axis, with charge density λ = 1.30 μC/m. A dipole is placed with its center along the x axis at x = 21.0 cm. The dipole consists of two charges ±10.0 μC separated by 2.00 cm. The axis of the dipole makes an angle of 30.0∘ with the x axis, and the positive charge is farther from the line of charge than the negative charge. Find the net force exerted on the dipole. F→ =
Solution
0 0