Since acceleration = force / mass, it will fall as mass increases.
Progressive loss of mass is much more likely to occur in real life - for instance with a rocket, which burns fuel as it goes. In this case, acceleration will increase.
Since the mass is constant, acceleration will increase linearly with the force applied.
This describes the ordinary non-relativistic situation described by Newton's 2nd law of motion, F=MA, or for this purpose: A=F/M
Newtons second Law says that F = M x A
That is; force is equal to mass times acceleration.
So, if an identical force is applied to two objects, one twice as heavy as the other, the light one will accelerate away twice as fast as the heavy one (ignoring trivialities such as friction and wind resistance)
In other words, if the force remains constant, a body's acceleration will decrease if its mass increases.
From the equation F=ma you can determine that force and acceleration are directly related. If force increases, acceleration must also increase by the same factor; for example, if you double the force, the acceleration will also double, provided the mass is constant.
Newtons second law of motion is basically F=ma. If you rearrange this to equal acceleration you get a=F/m. If the mass remains constant there will be no change in acceleration unless a force is applied. Because the applied force is increasing and acceleration is proportional to force the acceleration also increases
If the object was at constant velocity when the net force increased, then it will start to accelerate. If the object was already accelerating when the net force increased, then it will experience an increase in acceleration.
In Newtonian physics, force (F) is proportional to the mass (m) multiplied by the
acceleration (a): F= m*a. The question goes on to specify constant force and
increasing mass. Mathematically, this means decreasing acceleration. You will stop
soon.
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Answer #2:
I can't imagine how you could increase the mass of a moving object, but . . .
The acceleration is directly proportional to the net force, and inversely proportional
to the mass. So if the force is constant and the mass changes by some factor, then
the acceleration changes by 1/the same factor . If the mass is increasing then the
acceleration is decreasing.
A rocket just after launch is the opposite situation . . . The rocket motors are
exerting a constant net force, but the rocket's mass is decreasing because the
fuel load is being burned. The rocket's acceleration increases as the fuel load
decreases. (And also because the force of gravity on it is decreasing as it gains
altitude, but that's another story.)
P.S. Returning to the punch-line in Answer #1 . . . There's no reason why you will
"stop soon". As long as there is a net force acting on you, your acceleration will
never become zero, no matter how large your mass becomes so long as it remains
finite. And even if the acceleration did become zero, that doesn't mean that you
would stop, only that your speed would stop increasing.
Fuel is used faster in larger cars than smaller cars if they will be having larger holes and fuel is lost through that hole
The chemical energy will be converted into kinetic energy and that is why cars are moving and they will be having more kinetic energy
If you double the mass then the acceleration is halved, with the same force.
Providing it is exactly the same the object's acceleration stays the same. If there aren't any other forces acting against it newtons laws of motion state that it will go on forever
Force = Mass x Acceleration
If acceleration is kept constant but you vary the mass, the force will vary in direct proportion to the mass. If the mass increases, the force will also increase, and if the mass decreases the force will also decrease. Newton's 2nd Law, illustrated by the equation F=ma, illustrates this.
For a given mass, the acceleration is directly proportional to the net force acting on the mass, and is in the same direction as the net force. In other words, the larger the net force acting on an object, the greater its acceleration. When the net force is zero, the object is either at rest or moving with a constant velocity.
When force is constant, mass and acceleration are inversely related. ma=k, m=k/a or a=k/m. The smaller the mass, the greater the acceleration. The greater the mass the smaller the acceleration. Because force and acceleration are both vectors, the direction of acceleration is the same as the direction of force.
Newtons second law states that the acceleration of a body is proportional to the force applied to it.
Force = (mass) times (acceleration) Constant force produces constant acceleration.
Acceleration increases
The acceleration increases in the direction of the force.
If the applied force is constant, the acceleration will also be constant. To know the actual amount of acceleration, you divide the force by the mass.
Assuming the mass remains constant, the acceleration will be tripled as well.
a constant force.
Yes. The equation that relates force to acceleration is very simple:F = M A ,orA = F / M .The acceleration is directly proportional to the force, and if the force doesn't change,then the acceleration doesn't change. (' M ' is the mass of the thing that's being'forced' to accelerate.)So constant force produces constant acceleration, and is the only way to do it.
F=ma, force = mass x acceleration. Therefore, more mass means more force is required.
force= mass times acceleration
No. Acceleration is proportional to the applied force.
Force = Mass x Acceleration
Assuming that mass stays constant, a decrease in force will result in a corresponding decrease in the acceleration of the object being acted upon by the force.