A force. To be precise, a force causes an acceleration - a change in velocity. In theory, if an object is already moving you don't need a force to keep it moving, although in practice, quite often there are frictional forces that slow the object down.
A force is not measured in kilograms. The kilogram is a unit of mass; forces are measured in newtons. You can get the force with Newton's Second Law. In this problem, you will need some additional information, specifically, the object's mass.
It means that you need a force to make something move or stop. It also means that if the object's mass is larger, you need more force - or, for the same force, you get less acceleration (change of velocity per second).
Light travels at 186,000 miles per second, which means you have to travel faster than that to break the light barrier. This feat is technically "impossible", since the faster you move, the more mass you have and the more mass you have, the more energy is required to move you, and by the time you reach the speed of light, you will need to have infinite energy. This doesn't apply to light particles, since they have no mass.
9.8 kg = 21 lb and 9.68 oz9.8 kg = 21 lb and 9.68 oz9.8 kg = 21 lb and 9.68 oz9.8 kg = 21 lb and 9.68 oz9.8 kg = 21 lb and 9.68 oz9.8 kg = 21 lb and 9.68 oz
You need to divide the number of grams by 1000 in order to convert it into kilograms then use the equation F=ma to work out the acceleration.
Mass can't be changed to newtons. The newton is a unit of force, not mass.In order to find the acceleration, you need to know the mass and the force.Then, the acceleration is (force) divided by (mass).
If there's nothing else holding it back, then any force will move any mass. Andonce you get it moving, you don't need any force at all to keep it moving.
You can use Newton's Second Law here: force = mass x acceleration. Your units are in SI, so you don't need any conversion. Answer will be in newtons.
A force is not measured in kilograms. The kilogram is a unit of mass; forces are measured in newtons. You can get the force with Newton's Second Law. In this problem, you will need some additional information, specifically, the object's mass.
Well force=mass x acceleration. Force in Newtons (N) Mass in kg Acceleration in metres per second squared. force = 3000N 3,500 N
Acceleration should be in meters per second squared.To calculate the force, simply use Newton's second law (multiply the mass times the acceleration). Since all the units are the standard SI units, the answer will be in newtons.
Newton's second law states that F=ma (Force= mass x acceleration). That means that mass and force are directly proportionate to each other. If the acceleration is to remain constant and yet the mass is to increase, then the force must increase (thus horsepower must increase).
We can only give the mass of the object. Newton's second law of motion will show that Force = mass x acceleration. therefore 12 Newtons = 4 kilogrammes x 3 m/s2 To calculate final velocity you will need to specify the time, the acceleration (and the initial velocity).
It means that you need a force to make something move or stop. It also means that if the object's mass is larger, you need more force - or, for the same force, you get less acceleration (change of velocity per second).
Light travels at 186,000 miles per second, which means you have to travel faster than that to break the light barrier. This feat is technically "impossible", since the faster you move, the more mass you have and the more mass you have, the more energy is required to move you, and by the time you reach the speed of light, you will need to have infinite energy. This doesn't apply to light particles, since they have no mass.
-- If the 40 kilogram mass is on the Earth, you need about 392 newtons (88.2 pounds).-- If the same mass is on the moon, you need about 64.9 newtons (14.6 pounds).-- If it's inside a space ship with you and your ship is coasting, then you canlift it with ANY force, no matter how large or small. In fact, after you lift it, you'llneed to apply force in the opposite direction in order to make it stop lifting.
In order to move the car, you will need to introduce an unbalanced force.