A concentration cell having Copper electrodes at different concentration is given. The cell potential for the given concentration cell at the given concentration of ions and the value of new cell potential after enough NH 3 is added to the left compartment at equilibrium condition is to be calculated. Concept introduction: A cell consisting of electrodes of same type which have different concentration of ions is called concentration cell. The difference in ion concentration in different compartments is the driving force for the formation of the concentration cell. To determine: The potential for the given concentration cell. The value of cell potential for the given cell is 0 . 1 1 8 V _ .
A concentration cell having Copper electrodes at different concentration is given. The cell potential for the given concentration cell at the given concentration of ions and the value of new cell potential after enough NH 3 is added to the left compartment at equilibrium condition is to be calculated. Concept introduction: A cell consisting of electrodes of same type which have different concentration of ions is called concentration cell. The difference in ion concentration in different compartments is the driving force for the formation of the concentration cell. To determine: The potential for the given concentration cell. The value of cell potential for the given cell is 0 . 1 1 8 V _ .
Solution Summary: The author describes a concentration cell consisting of electrodes of the same type which have different concentration of ions. The cell potential is underset_0.118V.
Definition Definition Chemical reactions involving both oxidation and reduction processes. During a redox reaction, electron transfer takes place in such a way that one chemical compound gets reduced and the other gets oxidized.
Chapter 17, Problem 148CP
(a)
Interpretation Introduction
Interpretation:
A concentration cell having Copper electrodes at different concentration is given. The cell potential for the given concentration cell at the given concentration of ions and the value of new cell potential after enough
NH3 is added to the left compartment at equilibrium condition is to be calculated.
Concept introduction:
A cell consisting of electrodes of same type which have different concentration of ions is called concentration cell. The difference in ion concentration in different compartments is the driving force for the formation of the concentration cell.
To determine: The potential for the given concentration cell.
The value of cell potential for the given cell is
0.118V_.
(b)
Interpretation Introduction
Interpretation:
A concentration cell having Copper electrodes at different concentration is given. The cell potential for the given concentration cell at the given concentration of ions and the value of new cell potential after enough
NH3 is added to the left compartment at equilibrium condition is to be calculated.
Concept introduction:
A cell consisting of electrodes of same type which have different concentration of ions is called concentration cell. The difference in ion concentration in different compartments is the driving force for the formation of the concentration cell.
To determine: The value of new cell potential after enough
NH3 is added to the left compartment at equilibrium condition.
The value of new cell potential for the given cell is
0.38V_.
For this question, if the product is racemic, input both enantiomers in the same Marvin editor.
A) Input the number that corresponds to the reagent which when added to (E)-but-2-ene will result in a
racemic product.
Input 1 for Cl, in the cold and dark
Input 2 for Oy followed by H₂O, Zn
Input 3 for D₂ with metal catalyst
Input 4 for H₂ with metal catalyst
B) Draw the skeletal structure of the major organic product made from the reagent in part A
Marvin JS
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Edit drawing
C) Draw the skeletal structure of the major organic product formed when (2)-but-2-ene is treated with
peroxyacetic acid.
Marvin 35
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Michael Reactions
19.52 Draw the products from the following Michael addition reactions.
1.
H&C CH
(a)
i
2. H₂O*
(b)
OEt
(c)
EtO
H₂NEt
(d)
ΕΙΟ
+
1. NaOEt
2. H₂O'
H
H
1. NaOEt
2. H₂O*
Rank the labeled protons (Ha-Hd) in order of increasing acidity, starting with the least acidic.
НОН НЬ
OHd
Онс
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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