Whether the reaction 2 NO 2 ( g ) → N 2 O 4 ( g ) , is always product-favored reaction, never product-favored, product-favored at low temperature, but not product-favored at high temperature or product-favored at high temperature, but not product-favored at low temperature has to be stated. Concept Introduction: The term entropy is used to represent the randomness in a system. When a system moves from an ordered arrangement to a less order arrangement, then the entropy of the system increases. The second law of thermodynamics state that “the entropy of the system either increases or remains the same.”
Whether the reaction 2 NO 2 ( g ) → N 2 O 4 ( g ) , is always product-favored reaction, never product-favored, product-favored at low temperature, but not product-favored at high temperature or product-favored at high temperature, but not product-favored at low temperature has to be stated. Concept Introduction: The term entropy is used to represent the randomness in a system. When a system moves from an ordered arrangement to a less order arrangement, then the entropy of the system increases. The second law of thermodynamics state that “the entropy of the system either increases or remains the same.”
Solution Summary: The author explains that entropy is used to represent the randomness in a system. The number of gas molecules on the product side is less than that at the reactant side.
Science that deals with the amount of energy transferred from one equilibrium state to another equilibrium state.
Chapter 16, Problem 124QRT
(a)
Interpretation Introduction
Interpretation:
Whether the reaction 2NO2(g)→N2O4(g), is always product-favored reaction, never product-favored, product-favored at low temperature, but not product-favored at high temperature or product-favored at high temperature, but not product-favored at low temperature has to be stated.
Concept Introduction:
The term entropy is used to represent the randomness in a system. When a system moves from an ordered arrangement to a less order arrangement, then the entropy of the system increases. The second law of thermodynamics state that “the entropy of the system either increases or remains the same.”
(b)
Interpretation Introduction
Interpretation:
Whether the reaction C5H12(g)+8O2(g)→5CO2(g)+6H2O(g), is always product-favored reaction, never product-favored, product-favored at low temperature, but not product-favored at high temperature or product-favored at high temperature, but not product-favored at low temperature has to be stated.
Concept Introduction:
Refer to part (a).
(c)
Interpretation Introduction
Interpretation:
Whether the reaction P4(g)+10F2(g)→4PF5(g), is always product-favored reaction, never product-favored, product-favored at low temperature, but not product-favored at high temperature or product-favored at high temperature, but not product-favored at low temperature has to be stated.
First image: I have to show the mecanism (with arows and structures) of the reaction at the bottom. Also I have to show by mecanism why the reaction wouldn't work if the alcohol was primary
Second image: I have to show the mecanism (with arrows and structures) for the reaction on the left, where the alcohol A is added fast in one portion
its not an exam
what is the skeletal structure of a tertiary alkyl fluoride with six carbon atoms and no rings.
One step of glycolysis is a retro-aldol reaction (aldolase) to produce ATP.Below is the aldol reaction of the equilibrium. Show the mechanism for the base catalyzed reaction. *see image
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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