equilibrium
state in which the rates of the forward and reverse reactions are equal
equilibrium constant (Kc)
for a chemical system at equilibrium at a certain temperature, the product concentrations multiplied together divided by the reactant concentrations multiplied together, with each term raised to the power of its coefficient in the balanced equation
Haber-Bosch process
process that breaks down the nitrogen-nitrogen bonds in N2 and converts nitrogen into ammonia (NH3)
law of mass action
chemical law that states when a reaction reaches equilibrium, the product concentrations multiplied together divided by the reactant concentrations multiplied together, with each term raised to the power of its coefficient in the balanced equation, is a constant
Le Chatelier's principle
principle that states that a change in the temperature, pressure, or concentration of a component will cause the equilibrium condition of a chemical system to change in a way that reduces the change
reaction quotient (Q)
ratio that can be used to predict how a system not in equilibrium will change to reach equilibrium
reversible reaction
reaction in which the products of the reaction can also react to produce the reactants at a nonnegligible rate