No, but it will take up slightly less space after melting.
during melting its bond strength decreases. so,its molecular spacing will be less. Thatswhy volume of ice decreases during melting.
Melted ice cream is a heterogeneous mixture.
To determine the mass of ice that can be melted by 2.0 kJ of energy, we use the latent heat of fusion for ice, which is approximately 334 J/g. First, convert 2.0 kJ to joules (2.0 kJ = 2000 J). Then, divide the total energy by the latent heat: ( \frac{2000 , \text{J}}{334 , \text{J/g}} \approx 5.99 , \text{g} ). Thus, about 6 grams of ice can be melted by 2.0 kJ of energy.
meltwater
water
An ice cap is an ice mass that covers less than 50 000 km² of land area (usually covering a highland area), so a melted ice cap is literally just one that has melted, and the high volume of water causes floods.
the mass does not change only the shape
When ice melts, it transforms from a solid to a liquid, which results in a decrease in volume. The molecules in the solid ice are packed more tightly than in the liquid water, leading to a lower volume when the ice melts.
Yes, the mass of the melted ice cube remains the same as the original ice cube. When ice melts, it undergoes a phase change from a solid to a liquid, but the total amount of matter remains constant.
No, because melted ice is water - you drink water.
Melted ice is liquid water and water boil.
during melting its bond strength decreases. so,its molecular spacing will be less. Thatswhy volume of ice decreases during melting.
Melted ice cream is a heterogeneous mixture.
To determine the mass of ice that can be melted by 2.0 kJ of energy, we use the latent heat of fusion for ice, which is approximately 334 J/g. First, convert 2.0 kJ to joules (2.0 kJ = 2000 J). Then, divide the total energy by the latent heat: ( \frac{2000 , \text{J}}{334 , \text{J/g}} \approx 5.99 , \text{g} ). Thus, about 6 grams of ice can be melted by 2.0 kJ of energy.
No.
you increase or decrease mass by taking the mass out
No light has no mass its only an energy. There would be no way to capture it. Therefore light can not be melted. <><><><><> Actually, light does have mass, but that has nothing to do with whether or not it can be melted.