For the given reaction entropy value ΔG o has to be calculated at 298 K 2 H 2 S ( g ) + 2 O 2 ( s ) ⇌ 2 H 2 O ( s ) + S O 2 ( g ) ; K = 6.57 × 10 173 Concept introduction: Standard free energy change: Standard free energy change is measured by subtracting the product of temperature and standard entropy change from the standard enthalpy change of a system. ΔG o = ΔH o - TΔS o where, ΔG o - standard free energy change ΔH o - standard enthalpy change ΔS o - standard entropy change and T - temperature . Relationship between Δ G o a n d K : The relationship between free energy change and equilibrium constant is given by ΔG o = -RTlnK where, ΔG o - standard free energy change R - gas constant 8 .314 J/mol × K T - temperature 298K K - equilibrium constant .
For the given reaction entropy value ΔG o has to be calculated at 298 K 2 H 2 S ( g ) + 2 O 2 ( s ) ⇌ 2 H 2 O ( s ) + S O 2 ( g ) ; K = 6.57 × 10 173 Concept introduction: Standard free energy change: Standard free energy change is measured by subtracting the product of temperature and standard entropy change from the standard enthalpy change of a system. ΔG o = ΔH o - TΔS o where, ΔG o - standard free energy change ΔH o - standard enthalpy change ΔS o - standard entropy change and T - temperature . Relationship between Δ G o a n d K : The relationship between free energy change and equilibrium constant is given by ΔG o = -RTlnK where, ΔG o - standard free energy change R - gas constant 8 .314 J/mol × K T - temperature 298K K - equilibrium constant .
For the given reaction entropy value ΔGo has to be calculated at 298K
2H2S(g)+2O2(s)⇌2H2O(s)+SO2(g);K=6.57×10173
Concept introduction:
Standard free energy change:
Standard free energy change is measured by subtracting the product of temperature and standard entropy change from the standard enthalpy change of a system.
For the given reaction entropy value ΔGo has to be calculated at 298K
H2SO4(l)⇌H2O(l)+SO3(g);K=4.46×10−15
Concept introduction:
Standard free energy change:
Standard free energy change is measured by subtracting the product of temperature and standard entropy change from the standard enthalpy change of a system.
Vnk the elements or compounds in the table below in decreasing order of their boiling points. That is, choose 1 next to the substance with the highest bolling
point, choose 2 next to the substance with the next highest boiling point, and so on.
substance
C
D
chemical symbol,
chemical formula
or Lewis structure.
CH,-N-CH,
CH,
H
H 10: H
C-C-H
H H H
Cale
H 10:
H-C-C-N-CH,
Bri
CH,
boiling point
(C)
Сен
(C) B
(Choose
Please help me find the 1/Time, Log [I^-] Log [S2O8^2-], Log(time) on the data table. With calculation steps. And the average for runs 1a-1b. Please help me thanks in advance. Will up vote!
Q1: Answer the questions for the reaction below:
..!! Br
OH
a) Predict the product(s) of the reaction.
b) Is the substrate optically active? Are the product(s) optically active as a mix?
c) Draw the curved arrow mechanism for the reaction.
d) What happens to the SN1 reaction rate in each of these instances:
1. Change the substrate to
Br
"CI
2. Change the substrate to
3. Change the solvent from 100% CH3CH2OH to 10% CH3CH2OH + 90% DMF
4. Increase the substrate concentration by 3-fold.
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, chemistry and related others by exploring similar questions and additional content below.
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