if its a velocity / time curve, it will show diminishing acceleration (slope of the curve) up to terminal velocity (forces balanced)
It depends on the shape of the object. A spherical object will fall faster than a rectangular object. This is untrue if they are placed in a vacuum.
In air, yes. In vacuum, no.
That depends on the weight and shape of the object that's falling, but it has nothing to do with the length of the fall.
It has been known since the 16th century that the mass of an object is irrelevant to how far it will fall. The main factor influencing the rate of fall is the shape of the object and, therefore, the air resistance (or buoyancy).
yes in air or liquid. The shape determines the opposing force (friction) encountered. A flat object will fall in a tumbling manner, because the opposing force is mostly likely acting at a an angle to the fall and the angle is changing with the inclination of the object. Even a baseball will spin because of the unevenness of how friction acts on the surface facing down.
It's all about the air resistance that the object receives as it falls in an atmosphere. The air has to move around the object as it falls, if it's allowed to move smoothly aroundyam object by the objects shape then the force of the air resistance is lower. This allows the object to fall faster.
in a vacuum, yes, all objects would fall at the same rate, but otherwise no due to air friction
They both fall at the same rate. This is because they are both only acted upon by one force in the vacuum- gravitational acceleration. The mass, size or shape of the object do not influence the object's motion in a vacuum.
The graph is a straight line whose slope is the acceleration of gravity.
The force of gravity will affect the rate of falling in air. As will the aerodynamic shape of the object. And assuming that the air is not moving with or against the direction of fall.
Such an object is said to be in "free fall".
No, there is an air resistance which resists its motion. it depends on the shape and size of the object.