The observation that the N − N bond length in N 2 O is 112 pm and that the N − O bond length is 119 pm to be explained. The elimination of any resonance structure of N 2 O on the basis of formal charge is to be identified. The consistency of this elimination is to be checked with the given observation. Concept introduction: The Lewis structure is also known as dot structure. This structure depicts the bonding between atoms and the lone pairs of electrons if exists. Formal charge is a charge given to an atom with assumption that electrons are shared equally between atoms in all chemical bonds irrespective of their electronegativity. To determine: The rationalization of the observation that the N − N bond length in N 2 O is 112 pm and that the N − O bond length is 119 pm ; if any of the resonance structure of N 2 O can be eliminated on the basis of formal charge; if this elimination is consistent with the given observation. To determine: The rationalization of the observation that the N − N bond length in N 2 O is 112 pm and that the N − O bond length is 119 pm .
The observation that the N − N bond length in N 2 O is 112 pm and that the N − O bond length is 119 pm to be explained. The elimination of any resonance structure of N 2 O on the basis of formal charge is to be identified. The consistency of this elimination is to be checked with the given observation. Concept introduction: The Lewis structure is also known as dot structure. This structure depicts the bonding between atoms and the lone pairs of electrons if exists. Formal charge is a charge given to an atom with assumption that electrons are shared equally between atoms in all chemical bonds irrespective of their electronegativity. To determine: The rationalization of the observation that the N − N bond length in N 2 O is 112 pm and that the N − O bond length is 119 pm ; if any of the resonance structure of N 2 O can be eliminated on the basis of formal charge; if this elimination is consistent with the given observation. To determine: The rationalization of the observation that the N − N bond length in N 2 O is 112 pm and that the N − O bond length is 119 pm .
Solution Summary: The author analyzes how the Lewis structure depicts the bonding between atoms and the lone pairs of electrons if exists.
Definition Definition Connection between particles in a compound. Chemical bonds are the forces that hold the particles of a compound together. The stability of a chemical compound greatly depends on the nature and strength of the chemical bonding present in it. As the strength of the chemical bonding increases the stability of the compound also increases.
Chapter 8, Problem 106E
Interpretation Introduction
Interpretation:
The observation that the
N−N bond length in
N2O is
112pm and that the
N−O bond length is
119pm to be explained. The elimination of any resonance structure of
N2O on the basis of formal charge is to be identified. The consistency of this elimination is to be checked with the given observation.
Concept introduction:
The Lewis structure is also known as dot structure. This structure depicts the bonding between atoms and the lone pairs of electrons if exists.
Formal charge is a charge given to an atom with assumption that electrons are shared equally between atoms in all chemical bonds irrespective of their electronegativity.
To determine: The rationalization of the observation that the
N−N bond length in
N2O is
112pm and that the
N−O bond length is
119pm; if any of the resonance structure of
N2O can be eliminated on the basis of formal charge; if this elimination is consistent with the given observation.
To determine: The rationalization of the observation that the
N−N bond length in
N2O is
112pm and that the
N−O bond length is
119pm.
A 0.10 M solution of acetic acid (CH3COOH, Ka = 1.8 x 10^-5) is titrated with a 0.0250 M solution of magnesium hydroxide (Mg(OH)2). If 10.0 mL of the acid solution is titrated with 20.0 mL of the base solution, what is the pH of the resulting solution?
For the decomposition reaction of N2O5(g): 2 N2O5(g) → 4 NO2(g) + O2(g), the following mechanism has been proposed:
N2O5 NO2 + NO3 (K1) | NO2 + NO3 → N2O5 (k-1) | NO2 + NO3 NO2 + O2 + NO (k2) | NO + N2O51 NO2 + NO2 + NO2 (K3)
→
Give the expression for the acceptable rate.
→
→
(A).
d[N205]
dt
==
2k,k₂[N₂O₂]
k₁+k₁₂
(B).
d[N2O5]
=-k₁[N₂O] + k₁[NO₂] [NO3] - k₂[NO₂]³
dt
(C).
d[N2O5]
=-k₁[N₂O] + k [NO] - k₂[NO] [NO]
d[N2O5]
(D).
=
dt
= -k₁[N2O5] - k¸[NO][N₂05]
dt
Do not apply the calculations, based on the approximation of the stationary state, to make them perform correctly. Basta discard
the 3 responses that you encounter that are obviously erroneous if you apply the formula to determine the speed of a reaction.
For the decomposition reaction of N2O5(g): 2 N2O5(g) → 4 NO2(g) + O2(g), the following mechanism has been proposed:
N2O5 NO2 + NO3 (K1) | NO2 + NO3 → N2O5 (k-1) | NO2 + NO3 NO2 + O2 + NO (k2) | NO + N2O51 NO2 + NO2 + NO2 (K3)
→
Give the expression for the acceptable rate.
→
→
(A).
d[N205]
dt
==
2k,k₂[N₂O₂]
k₁+k₁₂
(B).
d[N2O5]
=-k₁[N₂O] + k₁[NO₂] [NO3] - k₂[NO₂]³
dt
(C).
d[N2O5]
=-k₁[N₂O] + k [NO] - k₂[NO] [NO]
d[N2O5]
(D).
=
dt
= -k₁[N2O5] - k¸[NO][N₂05]
dt
Do not apply the calculations, based on the approximation of the stationary state, to make them perform correctly. Basta discard
the 3 responses that you encounter that are obviously erroneous if you apply the formula to determine the speed of a reaction.
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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