The equilibria that are associate with the equations of K inst for each of the given complex ions are to be written. The equations for the K inst of each of the complex ions are to be written. Concept Introduction: According to the law of chemical equilibrium , the equilibrium constant for an equilibrium reaction is the ratio of the product of the molar concentration of products to the product of the molar concentration of the reactants, each raised to the power of their stoichiometric coefficient in the overall balanced equilibrium reaction. For a general equilibrium reaction, aA + bB ⇄ cC+dD , the equilibrium constant will be represented as: K = [C] c [D] d [A] a [B] b The instability constant is reciprocal of the formation constant for an equilibrium reaction. The relation between these two is shown as follows: K inst = 1 K form Here, K inst is the instability constant and K form is the formation constant.
The equilibria that are associate with the equations of K inst for each of the given complex ions are to be written. The equations for the K inst of each of the complex ions are to be written. Concept Introduction: According to the law of chemical equilibrium , the equilibrium constant for an equilibrium reaction is the ratio of the product of the molar concentration of products to the product of the molar concentration of the reactants, each raised to the power of their stoichiometric coefficient in the overall balanced equilibrium reaction. For a general equilibrium reaction, aA + bB ⇄ cC+dD , the equilibrium constant will be represented as: K = [C] c [D] d [A] a [B] b The instability constant is reciprocal of the formation constant for an equilibrium reaction. The relation between these two is shown as follows: K inst = 1 K form Here, K inst is the instability constant and K form is the formation constant.
Definition Definition Number that is expressed before molecules, ions, and atoms such that it balances out the number of components present on either section of the equation in a chemical reaction. Stoichiometric coefficients can be a fraction or a whole number and are useful in determining the mole ratio among the reactants and products. In any equalized chemical equation, the number of components on either side of the equation will be the same.
Chapter 17, Problem 104RQ
Interpretation Introduction
Interpretation:
The equilibria that are associate with the equations of Kinst for each of the given complex ions are to be written. The equations for the Kinst of each of the complex ions are to be written.
Concept Introduction:
According to the law of chemical equilibrium, the equilibrium constant for an equilibrium reaction is the ratio of the product of the molar concentration of products to the product of the molar concentration of the reactants, each raised to the power of their stoichiometric coefficient in the overall balanced equilibrium reaction.
For a general equilibrium reaction, aA + bB ⇄cC+dD, the equilibrium constant will be represented as:
K = [C]c[D]d[A]a[B]b
The instability constant is reciprocal of the formation constant for an equilibrium reaction. The relation between these two is shown as follows:
Kinst=1Kform
Here, Kinst is the instability constant and Kform is the formation constant.
Lab Data
The distance entered is out of the expected range.
Check your calculations and conversion factors.
Verify your distance. Will the gas cloud be closer to the cotton ball with HCI or NH3?
Did you report your data to the correct number of significant figures?
- X
Experimental Set-up
HCI-NH3
NH3-HCI
Longer Tube
Time elapsed (min)
5 (exact)
5 (exact)
Distance between cotton balls (cm)
24.30
24.40
Distance to cloud (cm)
9.70
14.16
Distance traveled by HCI (cm)
9.70
9.80
Distance traveled by NH3 (cm)
14.60
14.50
Diffusion rate of HCI (cm/hr)
116
118
Diffusion rate of NH3 (cm/hr)
175.2
175.2
How to measure distance and calculate rate
For the titration of a divalent metal ion (M2+) with EDTA, the stoichiometry of the reaction is typically:
1:1 (one mole of EDTA per mole of metal ion)
2:1 (two moles of EDTA per mole of metal ion)
1:2 (one mole of EDTA per two moles of metal ion)
None of the above
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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