Inertia is related to speed and mass; a train is both faster and more massive than a car.
Because a car weighs a lot less than a train - therefore it takes less force to stop the car.
While they may both have the same speed, the train WEIGHS thousands of times what the car weighs.
A massive object has greater inertia. It requires more force to slow it down or change it's course. Example: It takes much more force to stop a train than it does to stop a car, only because the train has much greater mass.
has a greater mass than car 2
1500kg. "Inertia" is a measurement of resistance of an object to a change of it's motion. Oversimplified, a train has more inertia than a car. The more mass, the more inertia, it applies to acceleration and deceleration equally. Galileo demonstrated inertia before Newton's "First Law of Motion" Here is the interesting part: It does not require force to keep an object in motion. Rather, it is a force that brings an object to rest. That being friction. Inertia must not be confused with momentum, they are two different things in physics.
Because a car weighs a lot less than a train - therefore it takes less force to stop the car.
It takes less force to stop a train than to stop a car.
While they may both have the same speed, the train WEIGHS thousands of times what the car weighs.
A massive object has greater inertia. It requires more force to slow it down or change it's course. Example: It takes much more force to stop a train than it does to stop a car, only because the train has much greater mass.
The train is heavier than the car is and the train has more things in the back. The train is heavier than the car is and the train has more things in the back.
I am almost certain they would have the same inertia.
has a greater mass than car 2
A speeding car and a jet on a runway would have roughly the same amount of inertia, as both objects have mass and are in motion. Inertia is a property of an object that resists changes in its motion, and is directly proportional to the object's mass. Therefore, the greater the mass, the greater the inertia.
A car is much, much lighter than a train, and requires less force both to go into motion and to come to a stop. Even though a train has many more sets of brakes and a much more powerful motor, the ratio of engine power to weight and braking power to weight is much greater in a car, allowing the car to go into motion and come to a stop with much less effort than what is required to do the same with a train.
If by that you mean, was the train around longer than the car, if so yes
1500kg. "Inertia" is a measurement of resistance of an object to a change of it's motion. Oversimplified, a train has more inertia than a car. The more mass, the more inertia, it applies to acceleration and deceleration equally. Galileo demonstrated inertia before Newton's "First Law of Motion" Here is the interesting part: It does not require force to keep an object in motion. Rather, it is a force that brings an object to rest. That being friction. Inertia must not be confused with momentum, they are two different things in physics.
because the train have a power heavy than car fast thats it