If one of the two electrons fo a hydrogen molecule is removed, we get a hydrogen molecule ion `(H_(2)^(+))`. In the ground state of `H_(2)^(+)`, the two protons are separated roughly by `1.5 Å` and electron is roughly `1 Å` from each proton. Determine the potential energy of the system. Specify your choice of zero of potential energy.

If one of the two electrons of a H_(2) molecule is removed, we get a hydrogen molecular ion H_(2)^(+) .In the ground state of an H_(2)^(+) , the two protons are separated by roughly 1.5 Å, and the electron is roughly 1 Å from each proton. Determine the potential energy of the system. Specify your choice of the zero of potential energy

If one of the two electrons of a H_(2) molecule is removed, we get a hydrogen molecular ion H_(2)^(+) .In the ground state of an H_(2)^(+) , the two protons are separated by roughly 1.5 Å, and the electron is roughly 1 Å from each proton. Determine the potential energy of the system. Specify your choice of the zero of potential energy

If one of the two electrons of a H_(2) molecule is removed, we get a hydrogen molecular ion H_(2)^(+) . In the ground state of an H_(2)^(+) , the two protons are separated by roughly 1.5Å, and the electron is roughly 1Å from each proton. Determine the potential energy of the system. Specific your choice of the zero of potential energy.

If one of the two electrons of a H_(2) molecule is removed, we get a hydrogen molecular ion H_(2)^(+) . In the ground state of an H_(2)^(+) , the two protons are separated by roughly 1.5 A^(o) , and the electron is roughly 1A^(o) from each proton. Determine the potential energy of the system. Specify your choice of the zero of potential energy.

If one of the two electrons of a H_2 molecule is removed, we get a hydrogen molecular ion H_2^+ . In the ground state of an H_2^+ , the two protons are separated by roughly 1.5 overset@A . and the electron is roughly 1 A from each proton. Determine the potential energy of the system. Specify your choice of the zero of potential energy.