In a galvanic cell, what role does the cathode play?

In a galvanic cell, what role does the cathode play?

• A. Site of oxidation
• B. Source of electrons
• C. Site of reduction
• D. Maintains charge balance in the cell

Answer: (C)

In a galvanic cell, the cathode is indeed the site of reduction. Reduction is the process where a species gains electrons, and the cathode is defined as the electrode where this process occurs. When the cell operates, oxidizing agents (or species) from the solution gain electrons from the anode and are reduced at the cathode. In a galvanic cell, the flow of current is a result of electrons moving through an external circuit from the anode (where oxidation takes place) to the cathode. As the electrons arrive at the cathode, they participate in the reduction reaction, which leads to the formation of reduced products. This fundamental role of the cathode is critical in the functioning of galvanic cells. It is through reduction that energy is harnessed in these electrochemical cells, ultimately allowing for various applications such as batteries to provide energy. Therefore, understanding that the cathode is where reduction takes place is essential for grasping the overall function of galvanic cells in electrochemistry.

In a galvanic cell, the cathode is indeed the site of reduction. Reduction is the process where a species gains electrons, and the cathode is defined as the electrode where this process occurs. When the cell operates, oxidizing agents (or species) from the solution gain electrons from the anode and are reduced at the cathode.

In a galvanic cell, the flow of current is a result of electrons moving through an external circuit from the anode (where oxidation takes place) to the cathode. As the electrons arrive at the cathode, they participate in the reduction reaction, which leads to the formation of reduced products.

This fundamental role of the cathode is critical in the functioning of galvanic cells. It is through reduction that energy is harnessed in these electrochemical cells, ultimately allowing for various applications such as batteries to provide energy. Therefore, understanding that the cathode is where reduction takes place is essential for grasping the overall function of galvanic cells in electrochemistry.