The figure shows a molecular-level representation of the following voltaic cell: Mg(s) + Sn 2+ (aq) $\rightarrow$ Mg 2+ (aq) + Sn(s) When drawing the "after" representation one would note that:

The Answer of The figure shows a molecular-level representation of the following voltaic cell: Mg(s) + Sn 2+ (aq) $\rightarrow$ Mg 2+ (aq) + Sn(s) When drawing the "after" representation one would note that:

The figure shows a molecular-level representation of the following voltaic cell: Mg(s) + Sn 2+ (aq) $\rightarrow$ Mg 2+ (aq) + Sn(s) When drawing the "after" representation one would note that:

The Answer of The figure shows a molecular-level representation of the following voltaic cell: Mg(s) + Sn 2+ (aq) $\rightarrow$ Mg 2+ (aq) + Sn(s) When drawing the "after" representation one would note that:

Solved

The Figure Shows a Molecular-Level Representation of the Following Voltaic $\rightarrow$

Question 72

Multiple Choice

The figure shows a molecular-level representation of the following voltaic cell: Mg(s) + Sn²⁺(aq) $\rightarrow$ Mg²⁺(aq) + Sn(s) When drawing the "after" representation one would note that: $The figure shows a molecular-level representation of the following voltaic cell: Mg(s) + Sn2+(aq) \rightarrow Mg2+(aq) + Sn(s) When drawing the after representation one would note that: A) the tin electrode will be smaller. B) the magnesium electrode will be larger. C) the number of Mg2+ ions in solution will remain constant. D) deposits will form in the salt bridge. E) the number of Sn2+ ions in solution will decrease.$

A) the tin electrode will be smaller.
B) the magnesium electrode will be larger.
C) the number of Mg²⁺ions in solution will remain constant.
D) deposits will form in the salt bridge.
E) the number of Sn²⁺ ions in solution will decrease.

Correct Answer: