concentraion decreaes, temperautre decreases
lol jk idk
sorry who answers like that -_-
In low temperatures, factors such as an exothermic reaction, a decrease in entropy, and the presence of a catalyst can favor a forward reaction. Lower temperatures decrease the kinetic energy of particles, allowing for better control over the reaction conditions towards the desired outcome.
In a reversible reaction, the products can convert back into the reactants given appropriate conditions. This is often seen in chemical equilibrium where the forward and reverse reactions occur at the same rate.
You think probable to a reversible reaction.
A double arrow in a chemical equation represents a reversible reaction, meaning that the reaction can occur in both the forward and reverse directions. It signifies that the reaction can reach equilibrium where the rate of the forward reaction equals the rate of the reverse reaction.
Chemical equilibrium results if the rates of the forward and reverse reactions are equal, leading to a balanced state where the concentrations of reactants and products remain constant over time. This occurs when the system reaches a point where the rate of the forward reaction is equal to the rate of the reverse reaction, allowing for a dynamic but stable state.
In low temperatures, factors such as an exothermic reaction, a decrease in entropy, and the presence of a catalyst can favor a forward reaction. Lower temperatures decrease the kinetic energy of particles, allowing for better control over the reaction conditions towards the desired outcome.
In a reversible reaction, the products can convert back into the reactants given appropriate conditions. This is often seen in chemical equilibrium where the forward and reverse reactions occur at the same rate.
A forward reaction is a chemical reaction that proceeds in the direction written in the chemical equation, from reactants to products. It is the process in which reactants are converted into products.
A double arrow in a chemical reaction indicates that the reaction is reversible, meaning it can proceed in both the forward and reverse directions. The reaction can reach an equilibrium where the forward and reverse reactions occur at the same rate.
The rate of a forward reaction in a chemical reaction is influenced by factors such as temperature, concentration of reactants, surface area, and the presence of catalysts. These factors can affect how quickly the reactants are converted into products.
The relationship between chemical equilibrium and the rates of forward and reversed reaction is they will both be equal. Meaning both of them will be just about the same.
The reactants are on the left side of the equation, and the products are on the right side of the equation. The reactants are used up in a chemical reaction, and the products are the substances made by the reaction.
At equilibrium in a reversible chemical reaction, the rates of the forward and reverse reactions must be equal. This means that the concentrations of the reactants and products remain constant over time.
An irreversible reaction is a chemical reaction that proceeds in one direction only, meaning it cannot be easily reversed. In contrast, a reversible reaction is a chemical reaction that can proceed in both forward and reverse directions, reaching a state of equilibrium where the rates of the forward and reverse reactions are equal.
You think probable to a reversible reaction.
When a chemical change does not go to completion, some reactants may remain after the reaction has reached equilibrium. This can result in a mixture of both reactants and products in varying amounts. The extent to which a reaction goes to completion depends on factors such as reaction conditions, reactant concentrations, and the presence of catalysts.
A chemical reaction is spontaneous if it releases energy in the form of heat or light, or if it increases the disorder (entropy) of the system. This can happen when the products of the reaction are more stable or have lower energy than the reactants. The key factor is whether the reaction can proceed with a net decrease in free energy.