try to breathe inside it.
The Object's name is an "Air Craft"If its not... Then I don't really know.
-- In the absence of air resistance, the object's diameter has no effect at all on the projectile motion. -- In the presence of air resistance, one has to know everything about the object AND the air in order to have a prayer of calculating the effect.
well in order to calculate the speed of the object at the start point you need to know: # mass/weight of the object # the air resistance # the angle # the form of the object
To determine the volume of air needed to float an object, you need to know the density of air and the weight of the object. For example, if the density of air is approximately 0.075 lb/ft³, then to float a 1000-pound object, you would need approximately 13,333.33 ft³ of air (1000 lb / 0.075 lb/ft³ = 13,333.33 ft³).
Well, here are a few that I can think of . . .-- the speed at which the object is plowing through the air-- the density of the air through which the object is plowing-- the local turbulence in the air that was there before the object came along-- the physical size of the object-- the shape of the object-- the object's surface texture
Air resistance is the force that opposes the motion of an object through the air. It acts in the opposite direction to the object's motion. The magnitude of air resistance depends on the speed of the object, the surface area exposed to the air, and the shape of the object.
The force of friction when an object moves through air is called air resistance. It depends on the speed of the object, the surface area exposed to the air, and the shape of the object. It acts in the opposite direction to the object's motion, slowing it down.
The feature characteristic of an object that does not affect air resistance is the object's mass. Air resistance is determined by the object's shape, size, and speed through the air, but not its mass.
When energy moves from air to an object, the object's temperature tends to increase as it gains energy from the air. This increase in temperature causes the particles in the object to move more rapidly. Conversely, when energy moves from an object to the air, the object's temperature tends to decrease as it loses energy to the air, leading to a decrease in particle movement in the object.
Air resistance, also known as drag, is the force that opposes the movement of an object in the air. It is caused by the friction and pressure of air molecules on the surface of the object as it moves through the air.
Air resistance is formed when an object moves through the air, causing air molecules to collide with the object's surface. This collision creates friction, which in turn slows down the object's motion. The amount of air resistance experienced by an object depends on factors such as the object's speed, shape, and surface texture.
The factors that affect the speed of an object in free fall with air resistance are the object's mass, the surface area of the object, the density of the air, and the gravitational force acting on the object.