The photochemical reaction that initiates the production of smog involves the decomposition of NO molecules, and the energy needed to break the N-O bond is 1 .04 × 10 − 18 J . (a) The longest wavelength of light that could break the bond should be calculated. (b) Number of photons needed to decompose 0.32 mg of NO should be calculated. Concept introduction: A chemical reaction which is originated when the molecules of substance absorb energy of light is known as the photochemical reaction. Due to this reaction, molecules reach to the transient excited state, subsequently their chemical and physical properties changes from the original molecule. At this moment, molecules incline to create a new structure, or combine with other molecules by transfer of atoms, protons or electrons. Therefore,a prolonged chemical chain reaction takes place.
The photochemical reaction that initiates the production of smog involves the decomposition of NO molecules, and the energy needed to break the N-O bond is 1 .04 × 10 − 18 J . (a) The longest wavelength of light that could break the bond should be calculated. (b) Number of photons needed to decompose 0.32 mg of NO should be calculated. Concept introduction: A chemical reaction which is originated when the molecules of substance absorb energy of light is known as the photochemical reaction. Due to this reaction, molecules reach to the transient excited state, subsequently their chemical and physical properties changes from the original molecule. At this moment, molecules incline to create a new structure, or combine with other molecules by transfer of atoms, protons or electrons. Therefore,a prolonged chemical chain reaction takes place.
Solution Summary: The author explains the photochemical reaction that initiates the production of smog involves the decomposition of NO molecules, and the energy needed to break the N-O bond.
The photochemical reaction that initiates the production of smog involves the decomposition of NO molecules, and the energy needed to break the N-O bond is 1.04×10−18J.
(a) The longest wavelength of light that could break the bond should be calculated.
(b) Number of photons needed to decompose 0.32 mg of NO should be calculated.
Concept introduction:
A chemical reaction which is originated when the molecules of substance absorb energy of light is known as the photochemical reaction. Due to this reaction, molecules reach to the transient excited state, subsequently their chemical and physical properties changes from the original molecule. At this moment, molecules incline to create a new structure, or combine with other molecules by transfer of atoms, protons or electrons. Therefore,a prolonged chemical chain reaction takes place.
3. The blue color in fireworks is due to copper (1) chloride , (CuCI), is heated at a temperature of 1200 oC. What is the
energy emitted at 4.50 x 102 nm by CuCI?
6) (a) The solubility of carbon tetrachloride (CCI4) in water at 25°C is 1.2 g/L. The solubility of chloroform
(CHCI3) at the same temperature is 10.1g/L. Why is chloroform almost 10 times more soluble in water
than is carbon tetrachloride?
(b) Explain the difference between the Bohr model for the hydrogen atom and the quantum-mechanical
model. Is the Bohr model consistent with Heisenberg's uncertainty principle?
(Ctrl)
The reaction of a metal, M, with a halogen, X2, proceeds by an exothermic reaction as indicated by this equation: M(s) + X2(g) ⟶ MX2(s). For each of the following, indicate which option will make the reaction moreexothermic. Explain your answers.(a) a large radius vs. a small radius for M+2(b) a high ionization energy vs. a low ionization energy for M(c) an increasing bond energy for the halogen(d) a decreasing electron affinity for the halogen(e) an increasing size of the anion formed by the halogen
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Author:Steven D. Gammon, Ebbing, Darrell Ebbing, Steven D., Darrell; Gammon, Darrell Ebbing; Steven D. Gammon, Darrell D.; Gammon, Ebbing; Steven D. Gammon; Darrell
Author:Steven D. Gammon, Ebbing, Darrell Ebbing, Steven D., Darrell; Gammon, Darrell Ebbing; Steven D. Gammon, Darrell D.; Gammon, Ebbing; Steven D. Gammon; Darrell