(a) Interpretation: Standard electrode potential of the ordinary alkaline battery should be calculated. Concept introduction: Standard reduction potential of a cell can be calculated with the following equation. E c e l l 0 = E c a t h o d e 0 − E a n o d e 0 Here, E c e l l 0 - Standard electrode potential of the cell (Battery) E c a t h o d e 0 - Standard electrode potential of the cathode E a n o d e 0 - Standard electrode potential of the anode
(a) Interpretation: Standard electrode potential of the ordinary alkaline battery should be calculated. Concept introduction: Standard reduction potential of a cell can be calculated with the following equation. E c e l l 0 = E c a t h o d e 0 − E a n o d e 0 Here, E c e l l 0 - Standard electrode potential of the cell (Battery) E c a t h o d e 0 - Standard electrode potential of the cathode E a n o d e 0 - Standard electrode potential of the anode
Solution Summary: The author explains that the standard electrode potential of the ordinary alkaline battery should be calculated with the following equation.
Standard electrode potential of the ordinary alkaline battery should be calculated.
Concept introduction:
Standard reduction potential of a cell can be calculated with the following equation.
Ecell0=Ecathode0−Eanode0
Here, Ecell0 - Standard electrode potential of the cell (Battery)
Ecathode0 - Standard electrode potential of the cathode
Eanode0 - Standard electrode potential of the anode
Interpretation Introduction
(b)
Interpretation:
Cathode reaction of the super-iron battery should be stated.
Concept introduction:
In the cathode of a battery, the reduction reaction take place. In the reduction process gain of electron/s takes place. The oxidation state of the atom increases.
Interpretation Introduction
(c)
Interpretation:
The number of Coulombs of charge released by reduction of FeO42 -to Fe(OH)3& reduction of MnO2 to MnO(OH) should be compared.
Concept introduction:
An electron released by any element or ion carries a charge of 1.60×10-19 Coulombs.
For each scenario below, select the color of the solution using the indicator thymol blue during the titration.
When you first add indicator to your Na2CO3solution, the solution is basic (pH ~10), and the color is ["", "", "", "", ""] .
At the equivalence point for the titration, the moles of added HCl are equal to the moles of Na2CO3. One drop (or less!) past this is called the endpoint. The added HCl begins to titrate the thymol blue indicator itself. At the endpoint, the indicator color is ["", "", "", "", ""] .
When you weren't paying attention and added too much HCl (~12 mL extra), the color is ["", "", "", "", ""] .
When you really weren't paying attention and reached the second equivalence point of Na2CO3, the color is
The following reaction is run in which the initial conditions include only methane (CH4) at a concentration of0.115 M. Once equilibrium was established, the concentration of acetylene (C2H2) was measured to be 0.035M. What is the value of the equilibrium constant, K?2 CH4 (g) ⇋ C2H2 (g) + 3 H2 (g)
Calculate the equilibrium concentration of carbon dioxide for the following reaction:2 COF2 (g) ⇋ CF4 (g) + CO2 (g) Kc = 2.00 at 10.00 °C. at equilibrium [COF2] = 0.255M; [CF4] = 0.118M
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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