As elevation increases, the air pressure and temperature decrease. This is because the air at higher elevations is less dense and can't hold heat as well as denser air at lower elevations. Additionally, mountains can block warm air from lower elevations, leading to cooler temperatures at higher elevations.
Basalt does have a greater specific gravity. Granite is not as dense as basalt.
Yes, gravity does depend on the planet you are on. The force of gravity is determined by the mass of the planet and your distance from its center. Therefore, gravity will be different on each planet based on these factors.
Atmospheric pressure is higher at sea level than on a mountaintop. This is because atmospheric pressure decreases with altitude; as you ascend, there is less air above you exerting downward force. Consequently, the air is less dense at higher elevations, resulting in lower pressure.
No, dense rock does not have low gravity. Gravity is a fundamental force that acts on all objects with mass. The density of a rock refers to its mass per unit volume, but it does not affect the force of gravity acting on it.
This is known as a cold air drainage. As the cold, dense air moves downslope, it displaces warmer air at lower elevations, creating temperature variations in different parts of the landscape. This phenomenon is common during nighttime in mountainous regions.
As elevation increases, the air pressure and temperature decrease. This is because the air at higher elevations is less dense and can't hold heat as well as denser air at lower elevations. Additionally, mountains can block warm air from lower elevations, leading to cooler temperatures at higher elevations.
Gravity ! The closer you are to the core - the higher the gravitational forces. High gravity attracts dense objects more than less dense ones.
That is called a "black hole".
A "Singularity" or a "black hole".
Basalt does have a greater specific gravity. Granite is not as dense as basalt.
Yes, gravity does depend on the planet you are on. The force of gravity is determined by the mass of the planet and your distance from its center. Therefore, gravity will be different on each planet based on these factors.
Continental crust is thicker and less dense than oceanic crust, making it sit higher above sea level. The buoyant nature of continental crust allows it to rise above the denser oceanic crust, resulting in higher elevations on land.
When altitude increases, the temperature generally decreases because the atmosphere becomes thinner at higher altitudes. As the air becomes less dense, it is less able to trap and retain heat, leading to cooler temperatures at higher elevations.
Places at higher elevations have cooler temperatures because the air becomes less dense as elevation increases. This results in lower atmospheric pressure and less ability to trap heat, causing temperatures to drop. Additionally, higher elevations are often closer to the upper atmosphere, where temperatures are lower.
On a continent, you are usually higher than sea level. Imagine you are on a mountain: you are farther from the center of the earth, so the force of gravity will be less. Also, if the rocks under a continent are less dense, this would make gravity weaker.
Atmospheric pressure is higher at sea level than on a mountaintop. This is because atmospheric pressure decreases with altitude; as you ascend, there is less air above you exerting downward force. Consequently, the air is less dense at higher elevations, resulting in lower pressure.