I guess that momentum is part of the inertia, inertia is composed of momentum
as the pages are related to the book. Inertia will be different if it has different kind of momentum. Force will affect momentum so inertia will change.
The more the mass, the more momentum you will need for an object to speed up more, or accelerate.
The inertia of a body can be defined as the relunctance of a body to acceleration. The mass of a body can be defined as a measure of the inertia of a body. This is because acceleration = resultant force / mass. So, if mass is greater, the less will be the acceleration of the body and hence the greater the inertia.
ACC TO FORMULAE p=mv2 WHERE p=MOMENTUM, m=MASS, v=VELOCITY IF MASS REMAIN CONSTANT , THEN CHANGE IN MOMENTUM IS DUE TO CHANGE IN VELOCITY. THEREFORE MOMENTUM IS DIRECTLY PROPOTIONAL TO VELOCITY.
The reluctance of a body to change its state of motion is termed inertia. The mass associated with this property is called its inertial mass, notably different from gravitational mass, which is responsible for objects with mass experiencing an attractive force between them. The inertial rest mass of an object is what gives it momentum.
Inertia is dependent on the mass of the object being considered, and sometimes by its momentum - depending on how we are using the term. Recall that inertia is the resistance of a body to a change in motion. (A body at rest tends to remain at rest unless acted on by an outside force. And, a body in motion tends to remain in motion unless acted on by an outside force.) We think of something massive as resistive to being moved. That's inertia. But it's not moving. If that same massive body is rolling, it will have a lot of momentum, and it will take a great deal of force to slow and stop it. In the first case, the object has no velocity, and will have no momentum. In the second case, it's moving, and it will have momentum.
The antonym for momentum is inertia. Inertia refers to an object's tendency to resist changes in its state of motion.
Newtons First Law of Motion states that an object with a given momentum will continue to posses that same momentum until the object is acted on by a force in which case it will undergo a change in momentum. Inertia is a measure of an objects tendency to resist a change in momentum. Massive bodies have a large inertia. If a massive body is in motion its momentum is given by the product of the mass and the velocity of that body. Newtons first law says that if a force acts on this body its momentum will change. But since the body has a large inertia this change is small. For example, if a small space pebble collides with a large asteroid that has a constant velocity and thus constant momentum, the force is small relative to the inertia of the asteroid so the momentum only changes a little bit.
The relationship between mass and momentum is direct. This means that as mass increases, momentum also increases, assuming constant velocity. Mathematically, momentum is calculated by multiplying mass and velocity.
Inertia is an object's resistance to changes in its motion, while momentum is the product of an object's mass and velocity. Inertia determines how difficult it is to start, stop, or change the direction of an object's motion, while momentum determines how difficult it is to stop an object once it is in motion. Both inertia and momentum affect the motion of an object by influencing how it responds to external forces and changes in its velocity.
An object with more momentum will have more inertia. Inertia is the ability to resist a change in force; objects with higher masses and higher speeds will have greater inertia. Speed * mass = momentum
Momentum is the measure of an object's motion, taking into account its mass and velocity. Inertia, on the other hand, is an object's resistance to changes in its motion. Momentum affects how easily an object can change its motion, while inertia determines how difficult it is to change the object's state of motion.
An important relationship between impulse and momentum derived from Newton's second law, which shows that the impulse of force is equal to the change in momentum that it produces.Scientifically speaking there is a relationship between those two because they both aren't moving at all.
Momentum, specifically linear momentum, defined as:p = mvwhere p=momentum, m=mass and v=velocityis a vector quantity that describes an objects motion in a given frame.Inertia, or the Principle of Inertia, is an object's resistance to a change in velocity. It is pretty much summed up by Newton's First Law of motion, an object at rest/ in motion will continue at rest/ in motion unless acted upon by an outside force.Momentum and Inertia are related conceptually in the way that any object with mass has momentum, if its velocity is zero than its momentum is zero, and inertia is that objects resistance to a change in its velocity.
The relationship between force and momentum is that force is the rate of change of momentum. Mathematically, this relationship can be expressed as the integral of momentum with respect to time equals force. This means that the total change in momentum over a period of time is equal to the force applied during that time.
The relationship between mass and inertia is positive. This means that as mass increases, inertia also increases. Inertia is the property of matter that resists changes in its motion, and it is directly proportional to mass according to Newton's first law of motion.
The relationship between momentum and energy is that momentum is a measure of an object's motion, while energy is a measure of an object's ability to do work. In a closed system, momentum and energy are conserved, meaning they can be transferred between objects but the total amount remains constant.
Momentum and inertia are actually different, inertia is the tendency a body has to maintain a state of rest or uniform motion until acted upon by a external force momentum would be a impelling force or strength.