The sphere with more mass will reach the ground first because it has more inertia and it's speed and acceleration are less affected by the resistance caused by the air (it also has a higher terminal velocity). If dropped in a vacuum, however, they would both accelerate at the same speed and hit the ground simultaneously.
No. The larger object would have a higher coeffecient of friction with the air because it would be in contact with more of it. Thus it would experiece a greater air resistance force acting upward and would fall more slowly. For what it's worth, I just tested this hypothesis by experiment. I took two square of paper napkin, one about six inches square and the other, torn from an itentical peice buy onlu one ince on a side. I droppen them moth several times horizontally so they would have maximum air resistance. the smaller peice beat the larger to the floor every time, no questiom about it.
both will touch the ground at same time
They will hit the ground simultaneously. Gravitational pull is the same on all matter.
None of these matter. With no air resistance, they all hit the ground at the same time.
Air resistance
objects of different mass fall at the same rate because the acceleration due to gravity is a constant rate. this means that all objects on the earth surface when dropped accelerate at 9.8m/s^2. the only reason this doesn't happen on earth is because of air resistance. take a feather and book for example the feather has more air resistance and floats sideways as well as down compared to the book that doesn't have much air resistance. BUT if you put the feather on the book then dropped it, they would fall at the same time because air resistance is negligible at this point.
Terminal velocity for a feather will be considerably lower than the terminal velocity of a bullet. The size and shape of the object will play an important role. While objects dropped from a given height in a vacuum will fall to earth at the same velocity, the resistance caused by atmosphere will be different for different objects.
They will hit the ground simultaneously. Gravitational pull is the same on all matter.
Without air resistance? All three will hit the ground at the same time.
Because all the objects have a natural frequency
None of these matter. With no air resistance, they all hit the ground at the same time.
Air resistance
objects of different mass fall at the same rate because the acceleration due to gravity is a constant rate. this means that all objects on the earth surface when dropped accelerate at 9.8m/s^2. the only reason this doesn't happen on earth is because of air resistance. take a feather and book for example the feather has more air resistance and floats sideways as well as down compared to the book that doesn't have much air resistance. BUT if you put the feather on the book then dropped it, they would fall at the same time because air resistance is negligible at this point.
objects of different mass fall at the same rate because the acceleration due to gravity is a constant rate. this means that all objects on the earth surface when dropped accelerate at 9.8m/s^2. the only reason this doesn't happen on earth is because of air resistance. take a feather and book for example the feather has more air resistance and floats sideways as well as down compared to the book that doesn't have much air resistance. BUT if you put the feather on the book then dropped it, they would fall at the same time because air resistance is negligible at this point.
Heating elements, but the level of resistance depends on the temperature. i am also trying to find objects however a wind up clock also has different levels of resistance.
The acceleration is the same for all objects, as long as air resistance is insignificant. After a while, different objects will have different amount of air resistance. Also, even without air resistance, the speed depends not only on the acceleration, but also on how how long the objects are falling.
Simultaneously, you can't pull on something unless it simultaneously, pulls back on you.
Without the interference of air or any other force, they should fall at the same speed. All objects accelerate at the same rate regarding their masses. To conclude, If this was made in a vacuum they should fall at the same speed but in different conditions it may have different results due to air resistance.
Terminal velocity for a feather will be considerably lower than the terminal velocity of a bullet. The size and shape of the object will play an important role. While objects dropped from a given height in a vacuum will fall to earth at the same velocity, the resistance caused by atmosphere will be different for different objects.