Two point-charges (q1 +10 C and q2 +40 C) are placed 40 cm apart. A third...

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Two point-charges (q1 +10 C and q2 +40 C) are placed 40 cm apart. A third charge q3 = +5.0 C is placed at a distance d away from q (as shown in the figure). 91 93 92 40 cm Alf d=15 cm, then the magnitude of the electric force acting on charge q3 due to charge q is [Select] N, and it points [Select] . The magnitude of the electric force N, and it points [Select] acting on charge q3 due to charge q2 is [Select] B. For d=15 cm, the magnitude of the net electric force at charge q3 is [Select] points [Select] N, and it C. Now, if the charge q3 is moved to a new location d such that the net force acting on charge q3 is zero, then d [Select] cm. D. If q3 is a negative charge instead while keeping other parameters the same, will we be able to achieve electrostatic equilibrium (net zero force on q3)? [Select] Two point-charges (q1 +10 C and q2 +40 C) are placed 40 cm apart. A third charge q3 = +5.0 C is placed at a distance d away from q (as shown in the figure). 91 93 92 40 cm Alf d=15 cm, then the magnitude of the electric force acting on charge q3 due to charge q is [Select] N, and it points [Select] . The magnitude of the electric force N, and it points [Select] acting on charge q3 due to charge q2 is [Select] B. For d=15 cm, the magnitude of the net electric force at charge q3 is [Select] points [Select] N, and it C. Now, if the charge q3 is moved to a new location d such that the net force acting on charge q3 is zero, then d [Select] cm. D. If q3 is a negative charge instead while keeping other parameters the same, will we be able to achieve electrostatic equilibrium (net zero force on q3)? [Select]