A plane doesn't move "at 250 miles"; probably you mean "miles per hour". Convert that to meter/second, then multiply the mass with the speed.
Momentum (p) equals mass times velocity, or p=mv, and I assume that when the question says "moving at 64 km" it is referring to the cars velocity. The car will have a momentum of 32000 kg*km/s. The cart will have a momentum of 3000 kg*km/s. The truck will have a momentum of 32000 kg*km/s. The car and the truck both have a greater momentum than the cart.
An example of a momentum problem could involve calculating the momentum of a moving object by multiplying its mass by its velocity. For instance, if a car with a mass of 1000 kg is travelling at a velocity of 20 m/s, its momentum would be 20,000 kg*m/s.
The momentum of the motorcycle is given by the formula momentum = mass x velocity. Plugging in the values, we get momentum = 100 kg x 10 m/s = 1000 kg m/s.
Yes. Momentum is based on mass and velocity, not physical size. 1 kg of styrofoam moving at 100 m/s has the same momentum as 1 kg of gold moving at 100 m/s, but the piece of styrofoam will be over 1000 times the size. Additionally, since the formula for momentum is mass times velocity, a 10 kg piece of gold moving at 10 m/s has the same momentum as a 1 kg piece of gold moving at 100 m/s. They both have a momentum of 100 kg-m/s.
The total momentum before the collision is 10,000 kg m/s (1000 kg * 10 m/s) in the direction of Car 2's initial velocity. Since the system is isolated, momentum is conserved. After the collision, the total momentum is still 10,000 kg m/s, but now shared between the two cars.
Momentum (p) equals mass times velocity, or p=mv, and I assume that when the question says "moving at 64 km" it is referring to the cars velocity. The car will have a momentum of 32000 kg*km/s. The cart will have a momentum of 3000 kg*km/s. The truck will have a momentum of 32000 kg*km/s. The car and the truck both have a greater momentum than the cart.
An example of a momentum problem could involve calculating the momentum of a moving object by multiplying its mass by its velocity. For instance, if a car with a mass of 1000 kg is travelling at a velocity of 20 m/s, its momentum would be 20,000 kg*m/s.
The momentum of the motorcycle is given by the formula momentum = mass x velocity. Plugging in the values, we get momentum = 100 kg x 10 m/s = 1000 kg m/s.
A plane flight that is about 1,000 miles would cost $350 on average. This is just an average estimate according to miles, and varies per airline and country.
Yes. Momentum is based on mass and velocity, not physical size. 1 kg of styrofoam moving at 100 m/s has the same momentum as 1 kg of gold moving at 100 m/s, but the piece of styrofoam will be over 1000 times the size. Additionally, since the formula for momentum is mass times velocity, a 10 kg piece of gold moving at 10 m/s has the same momentum as a 1 kg piece of gold moving at 100 m/s. They both have a momentum of 100 kg-m/s.
1000 speed an hour is not a term used to calculate speed , please rephrase as Kilometers or Miles per hour
I think you mean the dolphin's velocity is 4 metres per second.In which case the dolphin's momentum will be 1000 kg.m/secThe manatee will have less momentum (700 kg.m/sec)Linear momentum = mass times velocity.By the way, 4 miles per second = 14,400 miles per hour.
Technically, if you ran at average speed on a surface moving at about 1000 mph, you would be running about 1000 mph. But good luck keeping your balance on a surface moving that fast that doesn't have some serious gravity backing it up.
The total momentum before the collision is 10,000 kg m/s (1000 kg * 10 m/s) in the direction of Car 2's initial velocity. Since the system is isolated, momentum is conserved. After the collision, the total momentum is still 10,000 kg m/s, but now shared between the two cars.
Yes, you can hear a plane witch is 1000 meters high.
You because the product of your mass and velocity will be higher than that of a bullet
By conservation of momentum in an isolated system, the total momentum before the collision is equal to the total momentum after the collision. You can calculate this using the formula for conservation of momentum, which states that the initial momentum of car 2 is equal to the combined momentum of both cars after the collision. With this information, you can determine the common final speed of the two cars after the collision.