The mass of the sugar remains the same.
yes sugar is matter any thing is matter if its a solid liquid or gas and sugar would be solid particles
Yes, As you dissolve the sugar into the water the volume of the water will stay the same (once the sugar has gone into solution) but the density of the water/sugar solution will have increased (there is more mass in the same volume). Thus, because when you float something it displaces a volume of liquid equal to its mass/weight, in a sugar solution the floating body will float higher because its mass/weight will be compensated for by a smaller volume of liquid.
the total mass will be equal to the mass of the tea added to the mass of the sugar such is the law of conservation of mass. The weight will be proportional and dependent on the gravity force of the position in space
Sugars are carbohydrates and simple sugars are monosaccharides such as glucose, fructose etc with the general formula C6H12O6. When dissolved in water, these molecules do not break further and hence the mass remains the same.
When 24g of sugar dissolves in 576g of water, the total mass of the solution remains at 600g (24g + 576g). The mass of the sugar does not change when it dissolves, it simply disperses throughout the water.
That entirely depends on how much water there is. 1g of sugar dissolves in 0.2 ml of boiling water. I tablespoon of sugar has a mass of 12.5 g.
yes because when you dissolve sugar into water, it doesn't dissapear. You may not be able to see it but the sugar is still in the water, therefore making it heavier because there are two masses there (sugar and water)
This depends on: - mass of sugar - granulation of sugar - volume of water - stirring (and intensity of stirring, stirrer type) - type and geometry of the beaker - exact temperature of water
yes sugar is matter any thing is matter if its a solid liquid or gas and sugar would be solid particles
Yes, As you dissolve the sugar into the water the volume of the water will stay the same (once the sugar has gone into solution) but the density of the water/sugar solution will have increased (there is more mass in the same volume). Thus, because when you float something it displaces a volume of liquid equal to its mass/weight, in a sugar solution the floating body will float higher because its mass/weight will be compensated for by a smaller volume of liquid.
the total mass will be equal to the mass of the tea added to the mass of the sugar such is the law of conservation of mass. The weight will be proportional and dependent on the gravity force of the position in space
If the water is evaporated the obtained mass of the tablet is the same.
add 35.8g sugar to 125.35g of water this = 100% of the solution. then divide 35.8g of sugar by the whole solution and multiply by 100 to get the percentage (35.8)/ (125.35 + 35.8)= .222 * 100= 22.2% sugar is 22.2% of the solution. Do the same for the water switch 35.8 by 125.35
Well i think you must be knowing a term called bleaching of sugar.Sugar crystals when heated up the breaking point of the bonds(which depends what type of sugar we are using),then the water molecules in it get evaporated and we obtain a black mass of carbon.The reaction is C12H22011 -------HEAT----------->12C + 11H20 Sugar Black Water Mass of Carbon
Sugars are carbohydrates and simple sugars are monosaccharides such as glucose, fructose etc with the general formula C6H12O6. When dissolved in water, these molecules do not break further and hence the mass remains the same.
To determine the total mass of 1-pentanol that will dissolve in 110 grams of water to produce a saturated solution, you would need to know the solubility of 1-pentanol in water at a specific temperature. Once you have that information, you can calculate the total mass of 1-pentanol that will dissolve by adding the mass of the water to the mass of the 1-pentanol that can dissolve in it to form a saturated solution.
As the surface area of a solute increases, so does its solubility. This is because there is more area for the solvent to contact the solute and thus the solvent is able to interact with more of the solute at one time and dissolve it quicker. Think about a cube of sugar and a sheet of sugar, each the same mass. The sheet will dissolve quicker in water because so much of it is already interacting with the water molecules. The cube will not dissolve as fast because there are still molecules of sugar on the inside of the cube that will have to wait to interact with the water molecules.