Static equilibrium refers to a system at rest where all forces are balanced, while dynamic equilibrium refers to a system in motion where the rate of change is constant. In static equilibrium, objects are stationary, while in dynamic equilibrium, objects are moving at a constant speed and direction.
No, energy does not transfer when both objects are at thermal equilibrium because there is no temperature difference between them. At thermal equilibrium, the objects are at the same temperature, so there is no net flow of heat energy between them.
The greatest distance between the rest position of a wave and its crest is called the amplitude. Amplitude measures the maximum displacement of a wave from its equilibrium position.
Yes, the change in temperature can provide information on the rate at which thermal equilibrium will be reached. A larger temperature difference between two objects will usually result in a faster approach to equilibrium. However, other factors such as the materials involved, surface area, and presence of insulating materials can also influence the time taken to reach thermal equilibrium.
The equilibrium point in a wave is the position where there is no net displacement of the medium from its rest position. It is the point where the medium is at rest, unaffected by the wave passing through it.
Static equilibrium refers to a system at rest where all forces are balanced, while dynamic equilibrium refers to a system in motion where the rate of change is constant. In static equilibrium, objects are stationary, while in dynamic equilibrium, objects are moving at a constant speed and direction.
K is the equilibrium constant, Q is a concentration.
No difference.
Equilibrium is when supply and demand is balanced or equivalent, whereas disequilibrium doesn't attain equilibrium which is either above or below equilibrium.
The difference is that chemical equilibrium is the equilibrium of products and reactants in a reaction while physical equilibrium is the equilibrium of the physical states of the same substance.
No, energy does not transfer when both objects are at thermal equilibrium because there is no temperature difference between them. At thermal equilibrium, the objects are at the same temperature, so there is no net flow of heat energy between them.
Rest position or equilibrium position occurs when all the forces (gravity, the wind, friction etc) exerted on an object are equal.For example, a rolling ball is not in equilibrium because one or more forces (gravity or the force you used to initially move the ball) are greater in strength than the friction (both between the ball and the surface it is rolling on and between the ball and the air).The ball will stop rolling when the force causing it to move 'forwards' is overcome by frictional force. The ball will then be in equilibrium, or at rest.
The greatest distance between the rest position of a wave and its crest is called the amplitude. Amplitude measures the maximum displacement of a wave from its equilibrium position.
Yes, the change in temperature can provide information on the rate at which thermal equilibrium will be reached. A larger temperature difference between two objects will usually result in a faster approach to equilibrium. However, other factors such as the materials involved, surface area, and presence of insulating materials can also influence the time taken to reach thermal equilibrium.
Enzymes do not affect the equilibrium point of a reaction they catalyze. Instead, enzymes increase the rate of reaction by lowering the activation energy barrier. The equilibrium point of a reaction is determined by the free energy difference between products and reactants at equilibrium, which remains unchanged in the presence of an enzyme.
Homogeneous equilibrium involves all reactants and products existing in the same phase, such as gas or liquid. Heterogeneous equilibrium involves reactants and products existing in different phases, such as gas and solid.
The equilibrium point in a wave is the position where there is no net displacement of the medium from its rest position. It is the point where the medium is at rest, unaffected by the wave passing through it.