Sulfur Recovery Daily Question 2018.9.18
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Question: What is “phase equilibrium”? Answer: By “phase equilibrium,” it is meant that the properties of a system do not change over time. In this state, the number of molecules at the liquid phase surface that escape into the vapor phase is equal to the number of vapor phase molecules that enter the liquid phase; therefore, the equilibrium is a dynamic one. The maintenance of this state is also relative, temporary, and conditional. Once the conditions change, the equilibrium state will also be disrupted. Theoretically, a true state of equilibrium cannot be achieved.
Under certain conditions, when the properties and quantities of the various phases in a multiphase system do not change over time, such a system is said to be in phase equilibrium. At this point, on a macroscopic level, there is no net migration of matter from one phase to another; however, on a microscopic level, the transfer of molecules between different phases does not cease – it’s just that the migration rates in the two directions are equal.
The so-called “phase equilibrium” refers to a situation in which the properties of a system do not change over time. In this state, the number of molecules at the liquid phase surface that escape into the vapor phase is equal to the number of vapor phase molecules that enter the liquid phase; therefore, the equilibrium is a dynamic one. The maintenance of this state is also relative, temporary, and conditional. Once the conditions change, the equilibrium state will also be disrupted. Theoretically, a true state of equilibrium cannot be achieved.
The so-called “phase equilibrium” refers to a situation in which the properties of a system do not change over time. In this state, the number of molecules at the liquid phase surface that escape into the vapor phase is equal to the number of vapor phase molecules that enter the liquid phase; therefore, the equilibrium is a dynamic one. The maintenance of this state is also relative, temporary, and conditional. Once the conditions change, the equilibrium state will also be disrupted. Theoretically, a true state of equilibrium cannot be achieved.
Phase equilibrium refers to the ultimate state reached by the phases in a multiphase system. At this point, on a macroscopic level, no matter is being transferred between the phases; however, on a microscopic level, matter is still being transferred in opposite directions between the phases, at equal speeds, so the net transfer rate is zero. Chemical thermodynamics deals with the equilibrium of two-phase systems, including gas-liquid equilibrium, gas-solid equilibrium, vapor-liquid equilibrium, vapor-solid equilibrium, liquid-liquid equilibrium, liquid-solid equilibrium, and solid-solid equilibrium ； Systems with more than 2 phases include gas-liquid-solid equilibrium, gas-liquid-liquid equilibrium, etc.
The so-called “phase equilibrium” refers to a situation in which the properties of a system do not change over time. In this state, the number of molecules at the liquid phase surface that escape into the vapor phase is equal to the number of vapor phase molecules that enter the liquid phase; therefore, the equilibrium is a dynamic one. The maintenance of this state is also relative, temporary, and conditional. Once the conditions change, the equilibrium state will also be disrupted. Theoretically, a true state of equilibrium cannot be achieved.
The limiting states reached by the phase changes in a multiphase system
The so-called “phase equilibrium” refers to a situation in which the properties of a system do not change over time. In this state, the number of molecules at the liquid phase surface that escape into the vapor phase is equal to the number of vapor phase molecules that enter the liquid phase
Under certain conditions, when the properties and quantities of the various phases in a multiphase system do not change over time, such a system is said to be in phase equilibrium. At this point, on a macroscopic level, there is no net migration of matter from one phase to another; however, on a microscopic level, the transfer of molecules between different phases does not cease – it’s just that the migration rates in the two directions are equal.
The ultimate state reached by the phase changes in a multiphase system. At this point, there is no material transfer between the phases on a macroscopic scale, but on a microscopic scale, materials are still transferring between the phases in opposite directions at equal speeds; therefore, the net transfer velocity is zero.
Phase equilibrium refers to the ultimate state reached by the phases in a multiphase system. At this point, on a macroscopic level, no matter is being transferred between the phases; however, on a microscopic level, matter is still being transferred in opposite directions between the phases, at equal speeds, so the net transfer rate is zero. Chemical thermodynamics deals with the equilibrium of two-phase systems, including gas-liquid equilibrium, gas-solid equilibrium, vapor-liquid equilibrium, vapor-solid equilibrium, liquid-liquid equilibrium, liquid-solid equilibrium, and solid-solid equilibrium ； Systems with more than 2 phases include gas-liquid-solid equilibrium, gas-liquid-liquid equilibrium, etc