Question 4 Mg Voltmeter salt bridge 0.00100 M Mg(NO3)₂ Mg The cell potential would be [Select] 2.50 M Mg(NO₂)₂ Given the concentration cell pictured above: The side with the lower concentration is the ✓ [Select] cathode there is no cathode because the electrodes are the same anode catanode
Question 4 Mg Voltmeter salt bridge 0.00100 M Mg(NO3)₂ Mg The cell potential would be [Select] 2.50 M Mg(NO₂)₂ Given the concentration cell pictured above: The side with the lower concentration is the ✓ [Select] cathode there is no cathode because the electrodes are the same anode catanode
Chemistry
10th Edition
ISBN:9781305957404
Author:Steven S. Zumdahl, Susan A. Zumdahl, Donald J. DeCoste
Publisher:Steven S. Zumdahl, Susan A. Zumdahl, Donald J. DeCoste
Chapter1: Chemical Foundations
Section: Chapter Questions
Problem 1RQ: Define and explain the differences between the following terms. a. law and theory b. theory and...
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![### Question 4
**Diagram Description:**
The diagram illustrates a concentration cell setup using magnesium electrodes. It consists of two beakers, each containing a magnesium electrode (Mg). The left beaker contains a solution of 0.00100 M Mg(NO₃)₂, and the right beaker contains a solution of 2.50 M Mg(NO₃)₂. A salt bridge connects the two solutions. A voltmeter is connected between the two electrodes to measure the potential difference.
**Text Below the Diagram:**
- Given the concentration cell pictured above:
- The side with the lower concentration is the \[ \text{Select from: } \text{cathode, there is no cathode because the electrodes are the same, anode, catanode} \]
- The cell potential would be \[ \text{Select} \]
This setup is an example of a galvanic cell where the driving force for electron flow is the concentration gradient between the two solutions.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Ff3a38996-6782-40c2-af9f-f624a7021da3%2F39a55855-10aa-431d-b986-820ac713d3f4%2Fm3qwk3n_processed.jpeg&w=3840&q=75)
Transcribed Image Text:### Question 4
**Diagram Description:**
The diagram illustrates a concentration cell setup using magnesium electrodes. It consists of two beakers, each containing a magnesium electrode (Mg). The left beaker contains a solution of 0.00100 M Mg(NO₃)₂, and the right beaker contains a solution of 2.50 M Mg(NO₃)₂. A salt bridge connects the two solutions. A voltmeter is connected between the two electrodes to measure the potential difference.
**Text Below the Diagram:**
- Given the concentration cell pictured above:
- The side with the lower concentration is the \[ \text{Select from: } \text{cathode, there is no cathode because the electrodes are the same, anode, catanode} \]
- The cell potential would be \[ \text{Select} \]
This setup is an example of a galvanic cell where the driving force for electron flow is the concentration gradient between the two solutions.

Transcribed Image Text:### Concentration Cell Diagram Explanation
The image illustrates a concentration cell setup with magnesium electrodes and solutions of magnesium nitrate (\( \text{Mg(NO}_3\text{)}_2 \)) at different concentrations.
- **Components of the Cell:**
- Two half-cells connected by a salt bridge.
- Each half-cell contains a magnesium electrode (Mg).
- The left half-cell contains 0.00100 M \( \text{Mg(NO}_3\text{)}_2 \) solution.
- The right half-cell contains 2.50 M \( \text{Mg(NO}_3\text{)}_2 \) solution.
- A voltmeter is connected across the two electrodes to measure the potential difference.
- **Function of the Salt Bridge:**
- The salt bridge maintains electrical neutrality by allowing ions to flow between the half-cells.
### Questions
- Given the concentration cell pictured above, you are required to determine:
- **The side with the lower concentration:** Select whether it's the left or right side.
- **The cell potential:** A dropdown menu is provided to select the potential, which is influenced by the concentration difference between the two half-cells.
This setup is typically used to study the behavior of concentration cells and to calculate the cell potential using the Nernst Equation.
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