Point charges]q1=− 4.80 nC and q2=+ 4.80 nC are separated by distance 4.00 mm , forming an electric dipole. **Electric Dipole Moment Calculation and Direction****Part A: Determining the Magnitude of the Electric Dipole Moment**To find the magnitude of the electric dipole moment, express your answer in coulomb meters to three significant figures.- **Hint(s) Available**: Click on the "View Available Hint(s)" link for additional guidance.- **Answer Input Box**: Enter your numerical answer. The units of measurement are already set to coulomb meters (C·m).**Part B: Finding the Direction of the Electric Dipole Moment**Select the correct direction of the electric dipole moment from the given options:- **Option 1**: From \( q_1 \) to \( q_2 \)- **Option 2**: From \( q_2 \) to \( q_1 \)Make your selection by clicking the appropriate radio button. Then click "Submit" to confirm your answer or "Request Answer" for additional information if needed.--- This task involves both calculating a fundamental property (the dipole moment) and understanding its directional nature within a system of charges. **Educational Content Transcription:****Problem Statement:**The charges are in a uniform electric field whose direction makes an angle of 36.4° with the line connecting the charges. What is the magnitude of this field if the torque exerted on the dipole has a magnitude of 7.50×10^−9 N·m?Express your answer in newtons per coulomb to three significant figures.![Answer Input Box] N/C[Submit Button]

Answered: Point charges]q1=− 4.80 nC and q2=+…

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