The mineral has a density of 2 g/cm3
Density = Mass Density = 100g/50 cm. Density = 2g/cm3---------Volume.
density = mass/volume = 100g/50mL = 2g/mL
Density is defined as mass divided by volume, therefore: 100g/25cm3 = 4 g/cm3
A cup is a unit of volume, but a gram is a unit of mass. You can convert mass to volume by dividing by the substance's density (density is mass/volume), but you cannot know the volume of 100 grams of a substance without directly measuring it or knowing the density. Which is about as much use as a chocolate teapot. Well done whoever wrote this they listened in science.
The number of milliliters in 100g of powder depends on the density of the powder. To convert grams to milliliters, you need to know the density of the powder in grams per milliliter. Then you can divide the mass (100g) by the density to get the volume in milliliters.
Density = Mass Density = 100g/50 cm. Density = 2g/cm3---------Volume.
The density of the object is calculated by dividing the mass (100g) by the volume (25cm3). Therefore, the density would be 4 g/cm3.
The idea is to divide the mass by the volume.
The volume of air with a mass of 100g would depend on the density of the air. The density of air at room temperature and pressure is approximately 1.2 kg/m^3. Using the formula density = mass/volume, you can calculate that the volume of 100g of air would be approximately 0.083 m^3.
density = mass/volume = 100g/50mL = 2g/mL
The density of mercury is approximately 13.6 g/cm³. To find the volume, you would divide the mass by the density: 100g / 13.6 g/cm³ = 7.35 cm³. Therefore, 100g of mercury would have a volume of 7.35 cm³.
Density = 4 g/mL
just give me the answer
Density = 4 g/mL
Density = Mass/Volume = 100/200 = 0.5 grams per ml.
Density is defined as mass divided by volume, therefore: 100g/25cm3 = 4 g/cm3
Lead has a higher density compared to aluminum. So, to find the mass of lead that occupies the same volume as 100g of aluminum, you would first calculate the volume of the aluminum using its density. Then, you would find the mass of lead that occupies the same volume by using the density of lead.