It remains the same.
That would depend on the volume (density) of the 10kg object.
When a body is moved from sea level to the top of a mountain, its weight changes but its mass remains constant. Weight is the force of gravity acting on an object, so as the body moves to higher altitudes where gravity is weaker, its weight decreases. Mass, on the other hand, is the amount of matter in an object and doesn't change with location.
Yes, a beach at sea level has greater air pressure than the top of a mountain. This is because air pressure decreases with altitude; as elevation increases, there is less atmosphere above exerting weight. Therefore, at sea level, the weight of the air column above is greater, resulting in higher pressure compared to that at higher elevations, such as the top of a mountain.
Kilimanjaro does not have a weight as it is a mountain. It is measured by its height, which is approximately 19,341 feet (5,895 meters) above sea level.
Air pressure on earth results from the earth's gravitational pull on the earth's atmosphere. In some sense, pressure results from the weight of the air above the point at which one measures pressure. At higher altitudes, there is less air above, resulting in less weight, which translates into pressure.
The density of air is greater at ground level because of the weight of the air above pressing down. As you go higher in altitude, there is less air above exerting pressure, leading to lower air density at the top of a mountain.
Density is typically greater at sea level than it is at the top of mountains. This is because gravity plays a huge role in density.
There are several factors in determining how much a mountain weighs. How tall the mountain is, size of the mountain, it's density, and if someone is measuring the mountain from sea level or from just the base of the mountain are some of the factors to consider. For example Mount Everest is the highest mountain in altitude at 29,035 ft (8,850m)above sea level. Mauna Kea in Hawaii however, is the tallest mountain at 33,436 ft from its base in the bottom of the Pacific Ocean but only rises 13,796 feet above sea level. Now, Mount Chimborazo in Ecuador has an altitude of 20,703 feet (6,310 meters). But, Chimborazo has the distinction of being the highest mountain above Earth's center. Which would be noteworthy if measuring these mountains (mathematically speaking) from the same point of reference.
The air has the weight of all the air above it pressing down on it. this compresses the air increasing its density. So air at sea level is more dense than air on the top of the mountain, since the air on the mountain top has less air above it pressing down.
That would depend where you are. The weight of air above you is greater at sea level than up a mountain, but if you were in a plane it might well be less than up a mountain.
That would depend on the volume (density) of the 10kg object.
When a body is moved from sea level to the top of a mountain, its weight changes but its mass remains constant. Weight is the force of gravity acting on an object, so as the body moves to higher altitudes where gravity is weaker, its weight decreases. Mass, on the other hand, is the amount of matter in an object and doesn't change with location.
because the weight of the elephant compresses the mountain, therefore the elephant falls to ground level with the mountain if you are dumb read below the elephant is fat and squishes the mountain
As you descend further below sea level in dry land, the density of air increases due to the weight of the air above compressing the air at lower altitudes. This leads to higher pressure and more molecules of air being packed into a given volume, increasing the air density.
You would weigh slightly less on a high mountain peak than at sea level due to the decrease in gravitational force at higher altitudes. This is because the force of gravity weakens with distance from the Earth's center, which is measured from the mountain peak to the center, causing a slight reduction in weight.
The isostasy of a mountain will make it ultimately be eroded to near sea level. This is considered science earth.
Air pressure is greater at sea level because there is more air above that is pressing down. Any atmosphere is more dense at the surface of the planet than at locations higher in altitude. (Areas that are lower than sea level will generally have still higher atmospheric pressure.)