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On which quantum numbers does the energy of an electron depend in (a) a hydrogen atom and

(b) a vanadium atom?

Short Answer

Expert verified
  1. The quantum number that the energy of an electron depends in a hydrogen atom is the principal quantum number n.
  2. The quantum number that the energy of an electron depends in a vanadium atom is the principal quantum number n andl .

Step by step solution

01

The given data

Atoms are Hydrogen ( Z = 1 ) and Vanadium ( Z = 23 ) .

02

Understanding the concept of energy

Using the energy of an electron in the nth Bohr's orbit of an atom, we can calculate the energy of an electron of the required atom that are hydrogen-like species using their atomic number and the principal quantum number of the subshell where the electron is present. But for transition metals that are not hydrogen-like species, the energy of the electron also depends on the azimuthal number irrespective of the dependence of energy on the principal quantum number.

Formula:

The energy of an electron in the nth Bohr's orbit or shell of the atom,

E=-13.6Z2n2 ……….(i)

03

a) Calculation of the energy in the hydrogen atom

According to the concept and equation (i), we can say that the energy of hydrogen or any other hydrogen-like species depends on the principal quantum number n.

Hence, it depends on the principal quantum number n.

04

b) Calculation of energy in vanadium atom

Now, as Vanadium is not hydrogen-like species and is a transition metal, the energy of this atom due to transition depends on both the principal n and azimuthally quantum number l that is, the energy dependence is on the value n+l.

Hence, the energy of this atom depends onn and l .

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Most popular questions from this chapter

A certain gas laser can emit light at wavelength 550 nm, which involves population inversion between ground state and an excited state. At room temperature, how many moles of neon are needed to put 10 atoms in that excited state by thermal agitation?

A population inversion for two energy levels is often described by assigning a negative Kelvin temperature to the system. What negative temperature would describe a system in which the population of the upper energy level exceeds that of the lower level by and the energy difference between the two levels is 2.26 eV?

The beam from an argon laser (of wavelength 515 nm) has a diameter 3.00 mm of and a continuous energy output rate of 5.00 W. The beam is focused onto a diffuse surface by a lens whose focal length f is 3.50 cm . A diffraction pattern such as that of Fig. 36-10 is formed, the radius of the central disk being given by R=1.22d(see Eq. 36-12 and Fig. 36-14). The central disk can be shown to contain 84% of the incident power. (a) What is the radius of the central disk? (b) What is the average intensity (power per unit area) in the incident beam? (c) What is the average intensity in the central disk?

Suppose two electrons in an atom have quantum numbers n = 2 and l = 1 . (a) How many states are possible for those two electrons? (Keep in mind that the electrons are indistinguishable.) (b) If the Pauli Exclusion Principle did not apply to the electrons, how many states would be possible?

How many

(a) sub shells and

(b) electron states are in the n = 2 shell?

How many

(c) sub shells and

(d) electron states are in the n = 5 shell?

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