Three identical particles, each possessing the mass m and charge +q, are placed at the corners of an equilateral triangle with side $${{r}_{0}}.$$ The particles are simultaneously set free and start flying apart symmetrically due to Coulomb?s repulsion foces. The work performed by Coulomb?s forces acting on to a very large distance is $$(\text{where }k=1/4\pi {{\varepsilon }_{0}}.)$$

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TuteeHUB · Accepted Answer

$$\frac{3k{{q}^{2}}}{2{{r}_{0}}}$$

TuteeHUB · Answer

$$\frac{3k{{q}^{2}}}{{{r}_{0}}}$$

TuteeHUB · Answer

$$\frac{k{{q}^{2}}}{{{r}_{0}}}$$

TuteeHUB · Answer

$$\frac{k{{q}^{2}}}{2{{r}_{0}}}$$

1.	Three identical particles, each possessing the mass m and charge +q, are placed at the corners of an equilateral triangle with side \[{{r}_{0}}.\] The particles are simultaneously set free and start flying apart symmetrically due to Coulomb?s repulsion foces. The work performed by Coulomb?s forces acting on to a very large distance is \[(\text{where }k=1/4\pi {{\varepsilon }_{0}}.)\]
A.	\[\frac{3k{{q}^{2}}}{{{r}_{0}}}\]
B.	\[\frac{k{{q}^{2}}}{{{r}_{0}}}\]
C.	\[\frac{3k{{q}^{2}}}{2{{r}_{0}}}\]
D.	\[\frac{k{{q}^{2}}}{2{{r}_{0}}}\]
Answer» C. \[\frac{3k{{q}^{2}}}{2{{r}_{0}}}\]

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