In a thermodynamic study, a scientist focuses on the properties of a solution in an apparatus as illustrated. A solution is continuously flowing into the apparatus at the top and out at the bottom, such that the amount of solution in the apparatus is constant with time. (b) If the inlet and outlet were closed, what type of system would it be

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Identify the current state of the system: The solution is continuously flowing in and out, maintaining a constant amount of solution in the apparatus over time.

Define the type of system: A system where matter can enter and leave is known as an open system.

Consider the scenario where the inlet and outlet are closed: No matter can enter or leave the system.

Define the new type of system: When the inlet and outlet are closed, the system becomes isolated from its surroundings in terms of matter exchange.

Conclude the type of system: With the inlet and outlet closed, the system would be a closed system, as it no longer allows the exchange of matter with its surroundings.

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Key Concepts

Here are the essential concepts you must grasp in order to answer the question correctly.

Thermodynamic Systems

A thermodynamic system is defined as a quantity of matter or a region in space chosen for analysis. Systems can be classified as open, closed, or isolated based on their interactions with the surroundings. An open system allows both matter and energy to exchange with the surroundings, while a closed system permits only energy exchange. An isolated system does not exchange either matter or energy.

Closed System

A closed system is one where matter cannot enter or leave, but energy can be exchanged with the surroundings. In the context of the question, if the inlet and outlet pipes are closed, the system would retain the same amount of solution, making it a closed system. This concept is crucial for understanding how energy transfer can occur without mass transfer, impacting thermodynamic properties.

Steady State

Steady state refers to a condition where the properties of a system remain constant over time, despite ongoing processes. In the initial scenario, the continuous flow of solution into and out of the apparatus maintains a constant amount of solution, indicating a steady state. If the system were closed, it would eventually reach a new steady state where the energy balance is maintained without mass flow.