Of course not. But decreasing the mass of the wagon may
increase the effectiveness of the force used to pull it.
Look at it this way:
Whether I'm trying to pull a truck or a little red wagon, makes no difference
in the maximum amount of force I'm able to apply. But my maximum can move
the little red wagon a lot faster and a lot farther than it can move the truck.
To increase acceleration for a given net force, you can decrease the mass of the system. This is because acceleration is inversely proportional to mass when net force is constant (F = ma). Alternatively, you can increase the net force acting on the system.
Force is directly proportional to acceleration when mass is held constant. This relationship is described by Newton's second law of motion, which states that force equals mass times acceleration (F=ma). Therefore, as acceleration increases, the force required to produce that acceleration will also increase.
It means that if you increase the force, acceleration will increase. However, if you increase the mass of the object you are accelerating, the acceleration will decrease. It all stems from the basic equation F=ma, where F is the force, m is the mass and a is the acceleration. Rearranging for a gives a=F/m. This means that as m is the denominator, if it doubles and F remains constant, a will halve.
Mass has no effect on torque. Torque is the product of distance (from the axis), force, and an angular function. Mass can, however, make the turbine more stable - it will take longer to react to variations in wind. More mass will increase the MOMENT OF INERTIA (rotational inertia).
You can increase the potential energy of a wagon by lifting it to a higher elevation. This increases its gravitational potential energy without changing its mass.
False. Decreasing the mass of the wagon will not increase the force used to pull it. The force required to pull an object is dependent on its mass, so reducing the mass would actually decrease the force needed.
force (F) is equal to mass (m) multiplied by acceleration (a). F=m*a. if mass is made subject, m=F/a. hence mass is directly proportional to force. therefore an increase( or decrease) in force means an increase ( or decrease) in force also.
You either Decrease mass or increase spring force.
Decrease the mass, and change the force.
you increase or decrease mass by taking the mass out
-- Decrease its mass. -- Increase the net force acting on it.
It decrease.
If you increase the mass, you increase the gravitational force proportionally. If you increase the distance between two masses, you decrease the gravitational force between them by and amount proportional to the square of the distance.
Decrease the mass, and change the force.
To increase gravity, you would need to increase the mass of the object or planet exerting the gravitational force. To decrease gravity, you would need to reduce the mass of the object or planet exerting the gravitational force. Another way to decrease gravity is by increasing the distance between the objects experiencing the gravitational force.
If you increase the mass of an object and keep the force constant, the acceleration of the object will decrease because the force-to-mass ratio decreases. Conversely, if you increase the force applied to an object while keeping the mass constant, the acceleration of the object will increase because the force-to-mass ratio increases.
To increase acceleration for a given net force, you can decrease the mass of the system. This is because acceleration is inversely proportional to mass when net force is constant (F = ma). Alternatively, you can increase the net force acting on the system.