The greater the distance from the axis of rotation (i.e., pivot point) to the center of gravity of an object, the greater the torque required to rotate the object.
The relationship between the center of buoyancy and the center of gravity in an object's stability in water is that for an object to be stable, the center of gravity must be located below the center of buoyancy. This ensures that the object will remain upright and not tip over in the water.
The relationship between the center of gravity and support base for an object in stable equilibrium is that the center of gravity must lie within the support base. This ensures that the gravitational force acting on the object does not create a torque that would cause it to tip over. A wider base increases stability by providing a larger area for the center of gravity to fall within.
The relationship between weight and gravity is that weight is the force exerted on an object due to gravity. Gravity is the force that pulls objects towards the center of the Earth, and weight is the measure of the gravitational force acting on an object. The greater the mass of an object, the greater its weight due to the stronger gravitational pull.
If the center of gravity of an object falls below its support base, it is in stable equilibrium. If the center of gravity falls outside the support base, it is in unstable equilibrium. You can determine the stability by assessing the relationship between the object's center of gravity and its base of support.
Since gravity is produced by mass, the center of mass is also the center of gravity. The only difference between these two concepts is that mass is a more basic quantity, so the center of mass would also be the center of inertia, as well as the center of gravity. In practice, these terms can be used interchangeably.
The relationship between the center of buoyancy and the center of gravity in an object's stability in water is that for an object to be stable, the center of gravity must be located below the center of buoyancy. This ensures that the object will remain upright and not tip over in the water.
The relationship between the center of gravity and support base for an object in stable equilibrium is that the center of gravity must lie within the support base. This ensures that the gravitational force acting on the object does not create a torque that would cause it to tip over. A wider base increases stability by providing a larger area for the center of gravity to fall within.
When an object rolls the center of gravity (or of geometry - or both depending on the shape of the object) translates (moves) along a path and there is a point of contact with a surface on the perimeter of the object, rotation (angular change) does occur too.During rotation the center of gravity could be motionless and there is probably no point of contact with any surface; the movement is purely angular.
No - the gravity of Earth is due to its mass.No - the gravity of Earth is due to its mass.No - the gravity of Earth is due to its mass.No - the gravity of Earth is due to its mass.
The relationship between weight and gravity is that weight is the force exerted on an object due to gravity. Gravity is the force that pulls objects towards the center of the Earth, and weight is the measure of the gravitational force acting on an object. The greater the mass of an object, the greater its weight due to the stronger gravitational pull.
If the center of gravity of an object falls below its support base, it is in stable equilibrium. If the center of gravity falls outside the support base, it is in unstable equilibrium. You can determine the stability by assessing the relationship between the object's center of gravity and its base of support.
The metacentre is a point in a floating body where the buoyant force acts when the body is tilted, and it is crucial for stability. The position of the center of gravity (CG) impacts stability; when the CG is below the metacentre (M), the object is stable, while if the CG is above M, the object may become unstable and capsize. In essence, the relationship between the metacentre and the center of gravity determines the stability of a floating body.
tangential speed is directly proportional to rotational speed at nay fixed distance from the axis of rotation
Since gravity is produced by mass, the center of mass is also the center of gravity. The only difference between these two concepts is that mass is a more basic quantity, so the center of mass would also be the center of inertia, as well as the center of gravity. In practice, these terms can be used interchangeably.
No. The center of gravity of a wedding ring is in the space at the center of the ring. The center of gravity of the letter ' V ' is somewhere along the vertical line between the two slanted lines.
Earth's gravity is caused by its mass (or rather its energy). Everything that has mass will passively generate a gravitational field, even you and me! (Although we are not by far massive enough for the gravitational attraction between us to be noticeable.) It is not caused by the Earth's magnetic field, or the Earth rotation (in fact the rotation counteracts gravity in some places).
it is distance between forward and aft center gravity limits. if your center of gravity right before take off is between forard limit and back limit, its within "center of gravity range". center of gravity can move if you load plane diffrently, or when you use fuel or drop bombs. the range is a safe zone of its movement.