The shortest wavelength of light of an electron from lithium atom while transition has to be calculated. Concept introduction: Bohr developed a rule for quantization of energy that could be applicable to the electron of an atom in motion. By using this he derived a formula for energy levels of electron in H-atom. E = -R H n 2 n = 1,2,3, ...... (For hydrogen atom) R H is Rydberg constant (2 .179 × 10 -18 J) . Eis energy level . n is principal quantum number . Relation between frequency and wavelength is, C = λν C is the speed of light . ν is the frequency. λ is wavelength. E = hν h is Planck’s constant ( 6 .63 × 10 -34 J .s ) which relates energy and frequency. ν is the frequency. E is energy of light particle.
The shortest wavelength of light of an electron from lithium atom while transition has to be calculated. Concept introduction: Bohr developed a rule for quantization of energy that could be applicable to the electron of an atom in motion. By using this he derived a formula for energy levels of electron in H-atom. E = -R H n 2 n = 1,2,3, ...... (For hydrogen atom) R H is Rydberg constant (2 .179 × 10 -18 J) . Eis energy level . n is principal quantum number . Relation between frequency and wavelength is, C = λν C is the speed of light . ν is the frequency. λ is wavelength. E = hν h is Planck’s constant ( 6 .63 × 10 -34 J .s ) which relates energy and frequency. ν is the frequency. E is energy of light particle.
Solution Summary: The author explains that Bohr developed a rule for quantization of energy that could be applicable to the electron of an atom in motion.
The shortest wavelength of light of an electron from lithium atom while transition has to be calculated.
Concept introduction:
Bohr developed a rule for quantization of energy that could be applicable to the electron of an atom in motion. By using this he derived a formula for energy levels of electron in H-atom.
Consider the following Figure 2 and two atoms that are initially an infinite distance apart, x =00, at which point
the potential energy of the system is U = 0. If they are brought together to x = x, the potential energy is related
to the total force P by
dU
dx
= P
Given this, qualitatively sketch the variation of U with x. What happens at x=x? What is the significance of
x = x, in terms of the potential energy?
0
P, Force
19
Attraction
Total
Repulsion
x, Distance
Figure 2. Variation with distance of the attractive, repulsive, and total forces between atoms. The
slope dP/dx at the equilibrium spacing xe is proportional to the elastic modulus E; the stress σb,
corresponding to the peak in total force, is the theoretical cohesive strength.
Denote the dipole for the indicated bonds in the following molecules.
H3C
✓
CH3
B
F-CCl 3
Br-Cl
H3C Si(CH3)3
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OH
НО.
HO
HO
OH
vitamin C
CH3
For the SN2 reaction, draw the major organic product and select the correct (R) or (S) designation around the stereocenter
carbon in the organic substrate and organic product. Include wedge-and-dash bonds and draw hydrogen on a stereocenter.
Η
1
D
EN
Select Draw Templates More
C
H
D
N
Erase
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The Bohr Model of the atom and Atomic Emission Spectra: Atomic Structure tutorial | Crash Chemistry; Author: Crash Chemistry Academy;https://www.youtube.com/watch?v=apuWi_Fbtys;License: Standard YouTube License, CC-BY