gatorade urine
Sure. Other things being equal, you need more energy to raise the temperature of a larger mass of liquid.
For two liquids of the same volume, the liquid with a higher density will have greater mass. Similarly, the liquid with a greater mass has a higher density. This is only true for samples of equal volume, however.
urine
When the displaced fluid has a mass equal or greater than the mass of an object placed in the fluid, the object will float.
Pressure energy per unit volume is equal to the pressure and per unit mass is equal to the density of the liquid. When an incompressible liquid flows out of a tank in which the pressure is maintained , the liquid under pressure possesses potential energy.
The molecular formula for urine is CH4N2O. Urine is the liquid by-product of the body.
urine
The only way that the mass can change is if matter is added or taken away. The volume of a liquid can increase if heated, such as the liquid inside of a thermometer. The thermometer is sealed and no liquid gets in or out, so the mass of the liquid is unchanged. But when the temperature goes up, the liquid expands and is forced to go up the thermometer.
As the more energetic form of water -- water vapor -- is formed, the liquid water chills. Thus conservation of energy is preserved. Mass of course remains the same.
To determine the mass of the liquid, you need to know the initial mass of the container or the substance before the liquid was added. If the initial mass is not provided, you cannot calculate the mass of the liquid accurately. However, if you have the initial mass, simply subtract it from the final mass of 163g to find the mass of the liquid.
Depends on the different type of liquid, it has different molecular mass and concentration and therefore, there is no concrete answer to the question. You have to state clearly what liquid is discussed.
In a chemical reaction, the total mass of the reactants will always be equal to the total mass of the products (law of conservation of mass). Therefore, the mass of the substance in any state (solid, liquid, or gas) will remain the same before and after the reaction.