The possibility for the occurrence of the given reaction has to be predicted. Concept Introduction: Thermodynamics is the branch of science that relates heat and energy in a system. The four laws of thermodynamics explain the fundamental quantities such as temperature, energy and randomness in a system. Thermodynamics can predict the probability for the occurrence of a process. Entropy is the measure of randomness in a system. For a spontaneous process there is always a positive change in entropy. Free energy (Gibbs free energy) is the term that is used to explain the total energy content in a thermodynamic system that can be converted into work. The free energy is represented by the letter G. All spontaneous process is associated with the decrease of free energy in the system. The equation given below helps us to calculate the change in free energy in a system. ΔG = Δ Η - T Δ S Where, ΔG is the change in free energy of the system Δ Η is the change in enthalpy of the system T is the absolute value of the temperature Δ S is the change in entropy in the system Thermodynamics is only predicting the possibility for the occurrence of the reaction. The rate of the reaction can't be predicted by thermodynamics. A thermodynamically favorable reaction can have slow rate.
The possibility for the occurrence of the given reaction has to be predicted. Concept Introduction: Thermodynamics is the branch of science that relates heat and energy in a system. The four laws of thermodynamics explain the fundamental quantities such as temperature, energy and randomness in a system. Thermodynamics can predict the probability for the occurrence of a process. Entropy is the measure of randomness in a system. For a spontaneous process there is always a positive change in entropy. Free energy (Gibbs free energy) is the term that is used to explain the total energy content in a thermodynamic system that can be converted into work. The free energy is represented by the letter G. All spontaneous process is associated with the decrease of free energy in the system. The equation given below helps us to calculate the change in free energy in a system. ΔG = Δ Η - T Δ S Where, ΔG is the change in free energy of the system Δ Η is the change in enthalpy of the system T is the absolute value of the temperature Δ S is the change in entropy in the system Thermodynamics is only predicting the possibility for the occurrence of the reaction. The rate of the reaction can't be predicted by thermodynamics. A thermodynamically favorable reaction can have slow rate.
Solution Summary: The author explains that thermodynamics predicts the probability for the occurrence of a process, entropy, and free energy.
Definition Definition Study of the speed of chemical reactions and other factors that affect the rate of reaction. It also extends toward the mechanism involved in the reaction.
Chapter 14, Problem 14.53QP
Interpretation Introduction
Interpretation:
The possibility for the occurrence of the given reaction has to be predicted.
Concept Introduction:
Thermodynamics is the branch of science that relates heat and energy in a system. The four laws of thermodynamics explain the fundamental quantities such as temperature, energy and randomness in a system. Thermodynamics can predict the probability for the occurrence of a process.
Entropy is the measure of randomness in a system. For a spontaneous process there is always a positive change in entropy. Free energy (Gibbs free energy) is the term that is used to explain the total energy content in a thermodynamic system that can be converted into work. The free energy is represented by the letter G. All spontaneous process is associated with the decrease of free energy in the system. The equation given below helps us to calculate the change in free energy in a system.
ΔG = ΔΗ- TΔS
Where,
ΔG is the change in free energy of the system
ΔΗ is the change in enthalpy of the system
T is the absolute value of the temperature
ΔS is the change in entropy in the system
Thermodynamics is only predicting the possibility for the occurrence of the reaction. The rate of the reaction can't be predicted by thermodynamics. A thermodynamically favorable reaction can have slow rate.
Q1: Draw the most stable and the least stable Newman projections about the C2-C3 bond for
each of the following isomers (A-C). Are the barriers to rotation identical for enantiomers A and
B? How about the diastereomers (A versus C or B versus C)?
H Br
H Br
(S) CH3
(R) CH3
H3C (S)
H3C
H Br
Br
H
A
C
enantiomers
H Br
H Br
(R) CH3
H3C (R)
(S) CH3
H3C
H Br
Br H
B
D
identical
2. Histamine (below structure) is a signal molecule involved in immune response and is
a neurotransmitter. Histamine features imidazole ring which is an aromatic heterocycle.
Please answer the following questions regarding Histamine.
b
a
HN
=N
C
NH2
a. Determine hybridization of each N atom (s, p, sp, sp², sp³, etc.) in histamine
N-a hybridization:
N-b hybridization:
N-c hybridization:
b. Determine what atomic orbitals (s, p, sp, sp², sp³, etc.) of the lone pair of each N
atom resided in
N-a hybridization:
N-b hybridization:
N-c hybridization:
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The Laws of Thermodynamics, Entropy, and Gibbs Free Energy; Author: Professor Dave Explains;https://www.youtube.com/watch?v=8N1BxHgsoOw;License: Standard YouTube License, CC-BY