Physical changes are like cutting paper. The mass does not change. Chemical changes do not change total mass either. If you put a candle in a sealed container so that you may measure the total mass of the candle and the air before burning, then light the candle electrically but keep everything sealed, the total mass after burning will still be the same. But if you measure only the candle, then its mass has changed. So the mass of one single 'ingredient' will change during a chemical change.
It won't change. Density is volume divided by mass, so if volume doesn't change, density doesn't change unless you change the mass of the object.
The mass would not change, only the numbers describing the amount of mass would change.
The extent of resistance to a change of motion is determined by an objects mass. The mass of the object is measured in kilograms.
The reluctance of a body to change its state of motion is termed inertia. The mass associated with this property is called its inertial mass, notably different from gravitational mass, which is responsible for objects with mass experiencing an attractive force between them. The inertial rest mass of an object is what gives it momentum.
That depends on the scale you're working in. If you are working with kilo grams the change is insignificant, but if you're working with 1,00 grams the change is significant.
More gravity = more weight. Gravity will hardly change the mass of an object (except for effects due to the Theory of Relativity, which are usually insignificant).
The amount of mass does not change. The energy contained by the fixed mass increases.
Apart from insignificant effects due to the Special Theory of Relativity (less energy implies less mass), there will be no change in the mass, and therefore no change in the weight. The density of a liquid, however, will change, since the volume changes.
Mass would be the same at the equator and at the pole - except for an insignificant change due to the General Theory of Relativity. Weight would be more at the pole.
No. Except for insignificant effects related to Special Relativity, the mass remains constant. The weight, on the other hand, changes. Weight is calcualted as: weight = mass x gravity Where "gravity" is the acceleration due to gravity.
electrons
Any such change would be insignificant.
It basically means a small or insignificant change.
As acceleration increases, mass does not change. Mass is an intrinsic property of an object that remains constant regardless of its acceleration. However, an object's inertia, which is related to its mass, can influence how it responds to changes in acceleration.
Baines says that Jackie Robinson's breaking of the wire is insignificant because it does not change the situation.
Insignificant is the correct spelling.