The molecules can absorb and emit electromagnetic radiation, which corresponds to changes in their rotational energy. Consider a two-atom O2 molecule and its rotation.
a)Determine the moment of inertia of the molecule if it rotates
about its center. The distance of atoms in the molecule is d = 0.12
nm. (ANSWER IS : 1.9*10^-46 kgm^2
b)There is a transition from ℓ2 = 10 to ℓ1 = 9 in the molecule. Determine the energy of the associated photon?
(i need answer to part b )
The molecules can absorb and emit electromagnetic radiation, which corresponds to changes in their rotational energy....
Part A Calculate the total rotational kinetic energy of the molecules in 1.00 mol of a diatomic gas at 300 K. Krot = ? J Part B Calculate the moment of inertia of an oxygen molecule (O2) for rotation about either the y- or z-axis shown in Figure 18.18 in the textbook. Treat the molecule as two massive points (representing the oxygen atoms) separated by a distance of 1.21×10?10m. The molar mass of oxygen atoms is 16.0 g/mol. I =...
Hydrogen gas can only absorb EM radiation that has an energy corresponding to a transition in the atom, just as it can only emit these discrete energies. When a spectrum is taken of the solar corona, in which a broad range of EM wavelengths are passed through very hot hydrogen gas, the absorption spectrum shows all the features of the emission spectrum. But when such EM radiation passes through room-temperature hydrogen gas, only the Lyman series is absorbed. Explain the...
P41.4.2 The energy of a photon of electromagnetic radiation is 6.8*10-15 J. What is the (5.00) frequency of the radiation? (0/5 submissions used) Hz Save P41.4.2 Submit P41.4.2 Section 11: Energy levels, photons and spectral lines P41.11.1 Using the Bohr model, find the wavelength in nanometers of the radiation (5.00) emitted by a hydrogen atom, when it makes a transition from the n = 9 state to the n= 1 state. (0/5 submissions used) nm Save P41.11.1 Submit P41.11.1
SOLVE THE 3RD ONE INCLUDE ALL THE STEPS 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 rotational state at 300 K. Take the interatomic distance as 1.06 Å. Estimate the wavelength of radiation emitted from adjacent vibration energy levels of NO molecule. Assume the force constant...
Solve 1st one asap 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 rotational state at 300 K. Take the interatomic distance as 1.06 Å. Estimate the wavelength of radiation emitted from adjacent vibration energy levels of NO molecule. Assume the force constant k-1,550 N m In...
6. Some parts of the electromagnetic spectrum can cause changes in biological cells due to the energy of each photon. For the wavelengths given for different bands of the electromagnetic spectrum, determine the energy of a single photon, indicate if it can break the atomic bond of water (4.7 eV), ionize hydrogen (13.6 eV), and ionize calcium (6.11 eV). For those that can break bonds, how many molecules/atoms can one photon change? Show all your work for microwaves and ultraviolet,...
Superman is in some ways a living solar battery; his cells absorb electromagnetic radiation from stars (like Earth's sun). The radioactivity of kryptonite possibly interferes with this process, driving the energy out of his cells in a painful fashion. Long term and high-level exposure to green kryptonite can be fatal to Superman. For this reason, Superman spends a significant amount of time studying kryptonite. He performs an experiment to determine its half-life. He begins with 1.5 mols of kryptonite atoms...
Superman is in some ways a living solar battery; his cells absorb electromagnetic radiation from stars (like Earth's sun). The radioactivity of kryptonite possibly interferes with this process, driving the energy out of his cells in a painful fashion. Long term and high-level exposure to green kryptonite can be fatal to Superman. For this reason, Superman spends a significant amount of time studying kryptonite. He performs an experiment to determine its half-life. He begins with 1.5 mols of kryptonite atoms...
Superman is in some ways a living solar battery; his cells absorb electromagnetic radiation from stars (like Earth's sun). The radioactivity of kryptonite possibly interferes with this process, driving the energy out of his cells in a painful fashion. Long term and high-level exposure to green kryptonite can be fatal to Superman. For this reason, Superman spends a significant amount of time studying kryptonite. He performs an experiment to determine its half-life. He begins with 1.5 mols of kryptonite atoms...
Superman is in some ways a living solar battery; his cells absorb electromagnetic radiation from stars (like Earth's sun). The radioactivity of kryptonite possibly interferes with this process, driving the energy out of his cells in a painful fashion. Long term and high-level exposure to green kryptonite can be fatal to Superman. For this reason, Superman spends a significant amount of time studying kryptonite. He performs an experiment to determine its half-life. He begins with 1.5 mols of kryptonite atoms...