Increasing the mass of the stopper will increase its inertia, leading to a slower rate of rotation during the circular motion. This change may alter the centripetal force required to keep the stopper in motion, affecting the overall dynamics of the system.
When the mass of a white dwarf increases, its size decreases. This is because the increased mass causes the white dwarf to contract under its own gravity, making it smaller and denser.
If an object's mass remains constant but its volume is increased, then the density of the object decreases. This is because density is calculated by dividing an object's mass by its volume, so increasing the volume while keeping the mass constant leads to a lower density value.
The kinetic friction force remains constant regardless of the mass of the object. It is determined by the nature of the surfaces in contact and is independent of weight.
If the mass stays the same but the velocity is increased, the momentum of the object will also increase. Momentum is directly proportional to velocity, so an increase in velocity will result in a proportionate increase in momentum.
Increasing the mass of a pendulum will decrease the frequency of its oscillations but will not affect the period. The amplitude of the pendulum's swing may decrease slightly due to increased inertia.
When finding the mass of air, you need to have a test tube and a stopper. Measure the mass of the test tube and the stopper together. Then, make sure that the air gets in the the tube and put the stopper on. Recheck the mass of the air, test tube, and stopper and subtract just the tube and stopper from the newly recorded mass to find the mass of air.
it gets decreased
As the mass increases, the weight also increases correspondingly as the weight is directly proportional to the mass
the balls decrease in speed
The volume of the stopper can be calculated by subtracting the initial volume of the water from the final volume. In this case, the volume of the rubber stopper would be 30.9 ml - 25 ml = 5.9 ml. Now, divide the mass of the rubber stopper (8.46 g) by its volume (5.9 ml) to find its density. Density = Mass/Volume, so the density of the rubber stopper would be 8.46g / 5.9ml = 1.43 g/ml.
When the mass of a white dwarf increases, its size decreases. This is because the increased mass causes the white dwarf to contract under its own gravity, making it smaller and denser.
Gravitational force is directly proportional to the product of masses. So as mass is increased then force too increases
If an object's mass remains constant but its volume is increased, then the density of the object decreases. This is because density is calculated by dividing an object's mass by its volume, so increasing the volume while keeping the mass constant leads to a lower density value.
Assuming the mass remains constant, the acceleration will be tripled as well.
Density = mass/volume so the density of the stopper is 16.8/7.6 = 2.21 g/cm3.
The kinetic friction force remains constant regardless of the mass of the object. It is determined by the nature of the surfaces in contact and is independent of weight.
If the mass stays the same but the velocity is increased, the momentum of the object will also increase. Momentum is directly proportional to velocity, so an increase in velocity will result in a proportionate increase in momentum.