acceleration downwards has nothing to do with mass...gravity is a constant accelerated pull (9.81 m/s^2)....acceleration = distance/time
The reason why a feather hits the ground after a brick is because of air molecules...it is more difficult for air molecules to stop an object with more mass
The acceleration due to gravity is the same for both objects because it depends only on the mass of the Earth and the distance from its center. While the brick has a greater mass, the force of gravity acting on it is also greater to account for this, resulting in the same acceleration for both objects.
The acceleration due to gravity does not depend on the mass. For example, if you have two objects, one of which has 10 times the mass of another, it will be attracted with 10 times the force; however, it will also have 10 times the inertia, so the acceleration will be the same.
Because the acceleration depends on the gravitational force on the object. But the gravitational force on the object depends on its mass ... More mass = more force. Objects with less mass have less force on them, and objects with more mass have more force on them, and the force on each object is exactly enough so that each object winds up falling with the same acceleration.
Objects that can be squashed typically include soft items like sponge balls, plastic bottles, paper cups, and various types of fruit. These objects have the ability to deform under pressure and regain their shape once the pressure is released.
It requires less force to accelerate a low mass object because the acceleration produced is directly proportional to the force applied and inversely proportional to the mass of the object. Therefore, a smaller mass object will experience a greater acceleration for the same applied force compared to a higher mass object.
The acceleration due to gravity is the same for both objects because it depends only on the mass of the Earth and the distance from its center. While the brick has a greater mass, the force of gravity acting on it is also greater to account for this, resulting in the same acceleration for both objects.
The acceleration due to gravity does not depend on the mass. For example, if you have two objects, one of which has 10 times the mass of another, it will be attracted with 10 times the force; however, it will also have 10 times the inertia, so the acceleration will be the same.
Because the acceleration depends on the gravitational force on the object. But the gravitational force on the object depends on its mass ... More mass = more force. Objects with less mass have less force on them, and objects with more mass have more force on them, and the force on each object is exactly enough so that each object winds up falling with the same acceleration.
The density of the polymer will be very close to, usually a little under, 1, the density of the sponge will depend entirely upon how much polymer and how much space (air/bubbles) there is in it.
the sponge absorbs water, and keeps it in. if you rotate or tilt it, the water will move because of gravity.
Yes, objects can absorb water if they are porous or have spaces within their structure for water to seep into. Materials like sponge, cotton, and paper are examples of objects that can absorb water.
neither a sponge would
You could first soak the sponge in water, then use the standard method of measuring irregular objects: fill a graduated cylinder with 100 mL of water, then drop in the wet sponge and see how much the water level rises.
Depends on the size and the proportions - not the material. The biggest object has the biggest volume regardless of material.
Objects that can be squashed typically include soft items like sponge balls, plastic bottles, paper cups, and various types of fruit. These objects have the ability to deform under pressure and regain their shape once the pressure is released.
Because they have a greater surface area over which gaseous exchange can take place.
It requires less force to accelerate a low mass object because the acceleration produced is directly proportional to the force applied and inversely proportional to the mass of the object. Therefore, a smaller mass object will experience a greater acceleration for the same applied force compared to a higher mass object.