Inertia is directly proportional to mass. Unless you mean rotational inertia, in which case it depends on the shape, but for two objects of the same shape (and mass distribution), the more massive always has higher inertia.
Momentum = (mass) times (velocity) = 0.25 x 40 = 10 kg-m/sec
The momentum of the bike can be calculated as mass times velocity, so the momentum of the bike is 50 kg * 10 m/s = 500 kg m/s. The momentum of the rider can be calculated as mass times velocity, so the momentum of the rider is 30 kg * 10 m/s = 300 kg m/s.
A 250 g ball travels at a velocity of 40 m/s. Its momentum = mv where m is mass in kg and v is velocity in m/s mv = 250/1000 x 40 10 kg m/s
The sheep's momentum vector has a magnitude of 250 kilogram-meters per second,and a direction of east.
The weight of the ball is the force exerted on it due to gravity. Using the formula weight = mass x acceleration due to gravity, the weight of a 10 kilogram ball with an acceleration due to gravity of 9.8 m/s^2 is 98 Newtons.
A bowling ball has more momentum. You cannot throw it as fast, but a tenpin ball weighs 16 pounds and a baseball only 1/3 pound. Momentum is mass times velocity and if you throw the bowling ball at 10 mph but the baseball at 90 mph the bowling ball still has much more momentum.
Momentum is calculated as the product of an object's mass and its velocity. Therefore, a bowling ball traveling at 20 kph has greater momentum than one traveling at 10 kph, assuming both balls have the same mass. The increase in speed directly increases the momentum, making the 20 kph ball more impactful than the 10 kph ball.
Momentum is mass x velocity, so it would also depend on each ball's velocity.
The bowling ball traveling at 20 kph has greater momentum than the one traveling at 10 kph, assuming both have the same mass. Momentum is calculated using the formula ( p = mv ), where ( p ) is momentum, ( m ) is mass, and ( v ) is velocity. Since the second ball has a higher velocity, its momentum will be greater, making it more impactful in motion.
Momentum = (mass) times (velocity) = 0.25 x 40 = 10 kg-m/sec
liner momentum = p = mV = 2 kg * 10 m/s = 20 kg m/s
Momentum = M V = 10V = 10/M = 10/2= 5 meters per second
Ten times more, assuming it has the same speed. To have actual numbers, you have to multiply mass (kilograms) times velocity (meters/second) for both balls.
The momentum of the bike can be calculated as mass times velocity, so the momentum of the bike is 50 kg * 10 m/s = 500 kg m/s. The momentum of the rider can be calculated as mass times velocity, so the momentum of the rider is 30 kg * 10 m/s = 300 kg m/s.
A 250 g ball travels at a velocity of 40 m/s. Its momentum = mv where m is mass in kg and v is velocity in m/s mv = 250/1000 x 40 10 kg m/s
If you're suggesting something like an auto accident, the energy of the collision is used to deform materials in the structural elements of the vehicle(s). It also heats them. The primary design features of cars includes a lot of thought to where the energy of a collision can go. Bumpers collapse, body panels and their strengthening members fold and become compressed, and a top or roof can collapse down. All this sinks ("sucks up") energy. And if it all works in an optimal way, you can climb out and walk away.
The sheep's momentum vector has a magnitude of 250 kilogram-meters per second,and a direction of east.