Answer:
F= 11.25*10⁵ N to the right.
Step-by-step explanation:
- Assuming that the three charges can be treated like point charges, they must obey Coulomb's Law.
- Due to the linearity of this Law, we can use superposition in order to find the resultant force on the 1.00 C charge due to the other two.
- First, we find the force that the -3.00 C charge (located 200 m to the left) exerts on the 1.00 C, as follows:
![F_(13) = (K*q_(1)*q_(2))/(r_(13) ^(2) ) = (9e9*(-3.00C)(1.00C))/((200m)^(2)) = -6.75e5 N (1)](https://img.qammunity.org/2022/formulas/physics/college/4rsusds6hq8qbljsgkf50tmusf94421jw2.png)
- Then, in the same way, we can find the force that the 2.00 C exerts on the 1.00 C charge, located 100 m away to the left:
![F_(23) = (K*q_(3)*q_(2))/(r_(23) ^(2) ) = (9e9*(2.00C)(1.00C))/((100m)^(2)) = 18e5 N (2)](https://img.qammunity.org/2022/formulas/physics/college/unnh5mnch3at8w9vb81ylry75lks65csj4.png)
- Since both vectors are on the same line, their sum is directly the algebraic sum, as follows:
- F₃ = F₁₃ + F₂₃ = -6.75*10⁵ N + 18.00*10⁵ N = 11.25*10⁵ N to the right, assuming this direction as positive.