Two charges\[+3.2\times {{10}^{-19}}\] and \[-3.2\times {{10}^{-19}}C\] placed at \[2.4{AA}\] apart form an electric dipole. It is placed in a uniform electric field of intensity \[4\times {{10}^{5}}\,volt/m\]. The electric dipole moment is

\[7.68\times {{10}^{-19}}\ coulomb\times m\]

\[15.36\times {{10}^{-29}}\ coulomb\times m\]

\[15.36\times {{10}^{-19}}\ coulomb\times m\]

Along a line of force, if it has some initial velocity in the direction of an acute angle with the line of force

\[7.68\times {{10}^{-19}}\ coulomb\times m\]

Two charges\[+3.2\times {{10}^{-19}}\] and \[-3.2\times {{10}^{-19}}C\

1.	Two charges\[+3.2\times {{10}^{-19}}\] and \[-3.2\times {{10}^{-19}}C\] placed at \[2.4{AA}\] apart form an electric dipole. It is placed in a uniform electric field of intensity \[4\times {{10}^{5}}\,volt/m\]. The electric dipole moment is
A.	\[15.36\times {{10}^{-29}}\ coulomb\times m\]
B.	\[15.36\times {{10}^{-19}}\ coulomb\times m\]
C.	Along a line of force, if it has some initial velocity in the direction of an acute angle with the line of force
D.	\[7.68\times {{10}^{-19}}\ coulomb\times m\]
Answer» D. \[7.68\times {{10}^{-19}}\ coulomb\times m\]

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Two charges\[+3.2\times {{10}^{-19}}\] and \[-3.2\times {{10}^{-19}}C\] placed at \[2.4{AA}\] apart form an electric dipole. It is placed in a uniform electric field of intensity \[4\times {{10}^{5}}\,volt/m\]. The electric dipole moment is

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