It will be smaller so less gravity
If the sun contracted to a smaller volume, its gravitational force on its surface would increase. This is because gravitational force is directly proportional to mass and inversely proportional to distance squared. As the sun contracts, its mass remains the same but the distance from its center to its surface would decrease, leading to a stronger gravitational force.
If the volume of the sun decreases, its mass remains the same, so the gravitational force on its surface will remain unchanged. However, with a smaller volume, the density would increase, potentially leading to more intense internal processes like nuclear fusion.
The Earth and the object exert a gravitational force on each other, but only the Earth's is big enough to measure. So, the formula for gravitational force include the distance from one body's surface to its center and the same for the other body. The length of the radius is directly proportional to the body's gravitational force.
Yes, the size of a planet can affect its period of rotation. Generally, larger planets tend to rotate more slowly than smaller planets over their axes due to differences in their gravitational forces and internal structures. This is known as the conservation of angular momentum.
The greater the mass, the greater the gravitational force.
If the sun contracted to a smaller volume, its gravitational force on its surface would increase. This is because gravitational force is directly proportional to mass and inversely proportional to distance squared. As the sun contracts, its mass remains the same but the distance from its center to its surface would decrease, leading to a stronger gravitational force.
If the volume of the sun decreases, its mass remains the same, so the gravitational force on its surface will remain unchanged. However, with a smaller volume, the density would increase, potentially leading to more intense internal processes like nuclear fusion.
The variables that affect gravitational potential energy are the object's mass, the height at which the object is lifted, and the strength of the gravitational field (usually constant near the surface of the Earth).
It increases it.
The distance between a planet and an object affects the gravitational force between them. That means the size of a planet affects the value of the "surface gravity" for that planet. The greater thedistance from the surface to the center of the planet, the smaller the gravity at the surface (for the same planet mass). An example is the fact that Mars and Mercury have almost exactly the same surface gravity. Mars has more mass than Mercury, but this is balancedby the fact that Mercury hasthe smaller radius.
The Earth and the object exert a gravitational force on each other, but only the Earth's is big enough to measure. So, the formula for gravitational force include the distance from one body's surface to its center and the same for the other body. The length of the radius is directly proportional to the body's gravitational force.
The size of a black hole is determined by its mass, with smaller black holes having a smaller size. The gravitational pull of a black hole is incredibly strong due to its mass being concentrated in a very small space, creating a powerful gravitational force that can even trap light.
The surface area of mitochondria or chloroplast affect its energy output because larger surfaces-to-volume ratio imply more loss of energy as opposed to smaller surface-to-volume ratios.
The mass of the object does not affect its gravitational potential energy. Gravitational potential energy depends only on the height of the object above a reference point and the strength of the gravitational field.
As mass increases Surfaces area increase so the gravitational force increase so the friction increase...............
yes, the smaller the grain, the quicker it will dissolve. This is because the smaller grain has less surface area and can be broken down quicker.
The mass of the object does not affect the gravitational potential energy. Gravitational potential energy is determined by the object's height and the acceleration due to gravity.