Math Problem Statement
Consider the reduction of Sn^{4+} to Sn^{1+} at a constant rate of 5.846 mmol /h. How much current passes through the solution? Now imagine a circuit in which a battery generates a potential difference of 2.80 V across a battery that has 200 Ω of resistance. How much power is delivered by the battery? Assume no other resistance across the circuit
Solution
To calculate the current for the reduction of Sn to Sn and the power delivered by the battery, we can use the following formulas.
1. Current from the reduction reaction
The reduction of Sn to Sn involves a transfer of 3 electrons:
To find the current, we can use Faraday's law of electrolysis:
Where:
- = current (A)
- = number of moles of electrons transferred
- = Faraday's constant ()
- = time (in seconds)
Given:
- Reduction rate = 5.846 mmol/h =
- Convert to moles of electrons:
- Convert hours to seconds:
Substituting values into the equation:
Calculating this:
2. Power delivered by the battery
The power delivered by the battery can be calculated using the formula:
Where:
- = voltage (V)
- = resistance (Ω)
Given:
Substituting the values:
Calculating this:
Summary of Results
- The current passing through the solution is approximately 0.468 A.
- The power delivered by the battery is approximately 39.2 mW.
Would you like more details on these calculations or have any specific questions? Here are some related questions you might consider:
- What other reactions could occur during the reduction of Sn?
- How does temperature affect the electrochemical processes?
- What is the significance of Faraday's law in electrochemistry?
- How do changes in resistance affect the current in a circuit?
- What are some practical applications of Sn reduction in industry?
Tip: Understanding the relationship between voltage, current, and resistance (Ohm's Law) can help you analyze various electrical circuits effectively.
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Math Problem Analysis
Mathematical Concepts
Electrochemistry
Electric Circuits
Ohm's Law
Formulas
I = nF/t
P = V^2/R
Theorems
Faraday's Law of Electrolysis
Ohm's Law
Suitable Grade Level
Grades 11-12
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