If we know the magnitude and direction of the net force acting on a body of given mass. Newton's second law of motion allows us to calculate its:

position

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speed

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velocity

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acceleration

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Solution

The correct option is D acceleration
According to Newton's second law of motion.
$F \propto \frac{d p}{d t} o r, F = K \frac{m (v - u)}{Δ t} = K m a$ .
As, force and mass are given, we can easily calculate acceleration.

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Q. A constant force acting on a body of mass

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changes its speed from

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3.5 m/s

25

seconds. The direction of the motion of the body remains unchanged.
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According to Newton's second law of motion, the net force acting on a body is given by

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If we know the magnitude and direction of the net force acting on a body of given mass. Newton's second law of motion allows us to calculate its:

The correct option is D accelerationAccording to Newton's second law of motion.F∝dpdtor,F=Km(v−u)Δt=Kma.As, force and mass are given, we can easily calculate acceleration.

The correct option is D acceleration
According to Newton's second law of motion.
$F \propto \frac{d p}{d t} o r, F = K \frac{m (v - u)}{Δ t} = K m a$ .
As, force and mass are given, we can easily calculate acceleration.