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Question: What is necessary for a chemical reaction to reach dynamic equilibrium?...

What is necessary for a chemical reaction to reach dynamic equilibrium?

Explanation

Solution

Chemical reactions are the interactions between chemicals that result in the formation of new substances with different properties. Simply put, a chemical reaction is a method of transforming reactants into products.

Complete step by step answer:
When a chemical reaction reaches equilibrium, it does not end. Instead, the forward reaction rate equals the reverse reaction rate. The equilibrium is dynamic as a result of this. Things are still taking place. Once the concentrations of reactants and products are constant, a dynamic equilibrium occurs.
Once a reversible reaction happens, a dynamic equilibrium exists. There is no net shift because substances transition at the same rate between reactants and products. The rate at which reactants and products are produced is such that none of their concentrations changes. It is an example of a system that is in a steady state. To avoid any of the components from escaping, the system must be locked.
So, it must be reversible for a chemical reaction to achieve dynamic equilibrium and take place in a closed system.

Additional Information:
A steady state in chemistry is a condition in which all state variables remain constant despite ongoing processes that attempt to alter them. There must be a flow through a system for it to be in steady state, that is, for all of the system's state variables to be constant. The principle of steady state differs from that of chemical equilibrium. While both can result in a situation where a concentration does not shift, the net reaction rate in a system at chemical equilibrium is zero. At the same time, the steady state principle has no such restriction.

Note:
The components would escape into the atmosphere if the system were open, and the equilibrium would be impossible to achieve. Keep in mind that the equilibrium location is affected by pressure, concentration, and temperature.