A diatomic molecule has 2.6*10^-5eV of rotational energy in the L=2 quantum state. What is the rotational energy in the L=1 quantum state? Find the wavelength for such transition L=2 to L=1.
A diatomic molecule has 2.6*10^-5eV of rotational energy in the L=2 quantum state. What is the...
A certain molecule has a characteristic rotational energy of 8.26x10-4 eV. What is the energy of the decay photon towards the state with angular momentum quantum number l = 9? Note: The selection rules of delta l = +/- 1 tell you to what state it can decay. Please show work.
In the ro-vibrational model for spectra of diatomic molecules, the total rotational and vibrational energy for a given state is: Évj = ū(v + 3) + BJC +1) (Equation 1) where v is the vibrational quantum number and J is the rotational quantum number. Complete the following steps to create a model energy level diagram for a hypothetical diatomic molecule with ✓ = 2000 cm-1 and B = 1 cm-1. i) Draw a horizontal line to represent the ground vibrational...
Fill in the blanks in the following table for a diatomic molecule: Degree of freedom Quantum chemical model Number of degrees of freedom Internal energy contribution according to the equipartition theorem Translational Rotational Vibrational
Answer the second question. I bolded it. 2. A diatomic molecule is described by the following Hamiltonian matrix elements and overlap integrals: H11=H22= -5eV H21=H12= -1eV S11=S22 =1 S12=S21= 0.1 Calculate the eigenenergies of the bonding and antibonding states. (8 points) State clearly which energy belongs to the bonding state and which energy belongs to the antibonding state. (2 points) If each partner has 1 valence electron, what is the HOMO-LUMO gap of the molecule? (2 points)
Answer the first question. I bolded it. 2. A diatomic molecule is described by the following Hamiltonian matrix elements and overlap integrals: H11=H22= -5eV H21=H12= -1eV S11=S22 =1 S12=S21= 0.1 Calculate the eigenenergies of the bonding and antibonding states. (8 points) State clearly which energy belongs to the bonding state and which energy belongs to the antibonding state. (2 points) If each partner has 1 valence electron, what is the HOMO-LUMO gap of the molecule? (2 points)
At a given time t, a diatomic rigid rotor is found in a mixed quantum state describe by the function: where Ym are the normalized spherical harmonics, and N is the normalization constant. a) Normalize the function. (b) Compute the probability that a single measurement of the L-component in this quantum state can produce the result (La)classical . (c) Compute the mean rotational energy for one mole of 1C)'S molecules found in this rotational state. [The equilibrium bond length of...
please show the process and answer Consider the model of a diatomic gas lithium (L.) shown in Figure 9.3. atom Rigid connector (massless) atom Figure 9.3 (a) Assuming the atoms are point particles separated by a distance of 0.27 nm, find the rotational inertia Ix for rotation about the x axis. kg.ma (b) Now compute the rotational inertia of the molecule about the z axis, assuming almost all of the mass of each atom is in the nucleus, a nearly...
Solve the LAST ONE INCLUDE ALL THE STEPS The force constant for the carbon monoxide molecule is 1,908 N m At 1,000 K what is the probability that the molecule will be found in the lowest excited state? At a given temperature the rotational states of molecules are distributed according to the Boltzmann distribution. Of the hydrogen molecules in the ground state estimate the ratio of the number in the ground rotational state to the number in the first excited...
1) Assuming that a diatomic molecule can be approximated by a rigid rotor with a inertia momen- tum I = 10–38g cm², calculate the rotational frequency of the radiation that will cause a transition from the J = 1 state to the J = 2 state. In which region of the electromagnetic spectrum this transition will be found?
OB-5 cm OB-10 cm RT) + expi-B 2 3 266 / 50 Rotational quantum number J Figure 2.4 The Boltzmann populations of the rotational energy levels of Fig. 2.2. The diagram has been drawn taking values of B-5 and 10 cm and T - 300 K in Eq. (2.18). Rotational quantum number. J Figure 2.7 The total relative populations, including degeneracy, of the rotational energy levels of a diatomic molecule. The diagram has been drawn for the same conditions as...