In general, as objects get larger, mass increases faster than height, because height is a linear, or one dimensional measurement, whereas mass is related to volume, and volume would as a general rule be proportional to the cube of the height. I will add that your question is rather vague. A person who is getting fat, for example, could double in mass without any change in height. An empty box could have something put inside it that would cause it to double in mass without any increase in height. There are many different possible situations involving increased mass, which would have a variety of effects on height.
Also double since potential energy is the energy stored in a body due it's position.
the velocity is decreased
you die
It is not the weight of the immersed object but the volume of the object would affect the buoyant force on the immersed object because the buoyant force is nothing but the weight of the displaced liquid whose volume is equal to that of the immersed object.
Zero gravity does not affect inertia. The inertia of an object is an inherent property of the object and is directly proportional to the object's mass.
Also double since potential energy is the energy stored in a body due it's position.
the velocity is decreased
74
Circular motion would change the direction of an object but would not affect the object's speed.
Gravity causes an object to fall from a height. Without gravity, the object would just be floating in the air.
Potential energy is the amount of energy stored in an object due to its height. This is maximum for an object which has maximum height and vice versa. So the most potential energy would be for object with greatest height.
I'm not completely sure but I think it's like this. Doubling 1 would be 2. Doubling 2 would be 4. Doubling 4 would be 8. Doubling 8 would be 16. Doubling 16 would be 32. Doubling 32 would be 64. (
[object Object]
When building a model of an object to scale, it means that the height of the object is proportionally greater than the height of the model. Usual scales are 1:100 or 1:144, meaning that if the height of the model is 3 feet, the height of the actual building would be 300 feet or 432 feet.
It would cause the object to decelerate.
I would have gravitational potential energy, which is energy due to height.
The acceleration of gravity is 32 feet per second, per second. This means that --eliminating any obvious aerodynamic considerations as there would be with, say, a feather -- the speed at which an object falls increases proportionately to the time it is falling. An object falling from a greater height will be falling for a longer time period and thus will reach a higher velocity and impact the ground with a greater force than one falling from a lower height.