\((B)>(A)>(C)>(E)>(D)\)
\((E)>(C)<(D)<(A)<(B)\)
\((E)>(C)>(A)>(D)>(B)\)
\((C)<(E)<(D)<(A)<(B)\)
In multielectron systems, the energy of an electron in an orbital depends on both the principal quantum number (\(n\)) and the azimuthal quantum number (\(l\)). The energy increases as the value of \(n + l\) increases. For orbitals with the same \(n + l\), the one with the lower \(n\) has lower energy.
Order by \(n + l\):
\((C) = (E) < (D) < (A) < (B)\)
For orbitals with the same \(n + l\), compare \(n\):
\((C) < (E)\), as \(n = 3\) for (C) and \(n = 4\) for (E).
Final Answer: \((C) < (E) < (D) < (A) < (B)\).
LIST I | LIST II |
---|---|
A. Energy of ground state of He | I. \( +6.04 \, \text{eV} \) |
B. Potential energy of I orbit of H-atom | II. \( -27.2 \, \text{eV} \) |
C. Kinetic Energy of II excited state of He | III. \( 54.4 \, \text{eV} \) |
D. Ionization potential of He | IV. \( -54.4 \, \text{eV} \) |