A diamond is a solid, while water is a liquid.
If the solid is not completely submerged in the water, the volume of water displaced will be underestimated. This error will lead to a lower apparent volume, resulting in a higher reported density of the solid than the true value.
Density of a diamond a purity are not exactly related, unless you are determining the purity of industrial diamonds. We did find a chemistry question on Chegg that may reveal how: "In a purity check for industrial diamonds, a 11.25 carat (1 carat = 0.2000 g) diamond is heated to 74.21°C and immersed in 27.30 g of water in a constant-pressure calorimeter. The initial temperature of the water is 27.20°C. Calculate ?T of the water and of the diamond (cdiamond = 0.519 J/g·K). ?Twater _____ K ?Tdiamond ______ K"
No, adding more salt to water will increase the density of the water, making the spoon more likely to sink rather than float. The increased density of the saltwater would effectively displace more water, causing the spoon to become more submerged.
This depends what you put it in. If you put platinum in water it will sink. Water has a density of 1 g/mLwhereas platinum has a density of about 21 g/mL. Substances that are more dense than the liquid it is submerged in will sink.
Gold does not react with water or dissolve in it, so it remains intact. However, when gold is submerged in water, it may collect dirt or debris that can affect its appearance.
The unit weight of submerged soil: Submerged Density (kN/m3) = Saturated Density - Water Density Water Density = 9.81 kN/m3
The fraction of a piece of concrete submerged in water depends on its density compared to the density of the water. If the density of the concrete is greater than the density of water, the fraction submerged will be less than 1. If the density of the concrete is less than the density of water, the entire piece of concrete will be submerged.
The density of a submerged submarine is about the same as the density of the fluid it is submerged in, which is typically seawater. This allows the submarine to float or sink based on its buoyancy and weight.
The pressure will get higher quicker than in water because there is a different density between the liquids, and because there is a higher density, the liquid will be heavier and would push on you more than the smaller density of water. if you would submerge deep in that liquid, you will explode at a lower distance from the surface than in water.
A rock's density remains the same when submerged under water because its mass and volume do not change in the water. Density is calculated by dividing an object's mass by its volume, and since both the mass and volume of the rock remain constant underwater, its density also stays the same.
Nothing. It just sinks.
Measure the displacement of water when the object is submerged in water. This gives the volume ; then weigh the object and divide the weight by the volume to get the density.
nothing
When batteries are submerged in water, the water can cause a short circuit, leading to the battery overheating, leaking, or even exploding. This can be dangerous and should be avoided.
A body whose total density is greater than that of water will sink in water;that is, if it's not supported, it will continuously drift lower.A body whose total density is less than that of water will float in water; that is,it will sink only partially, and will then remain on the surface and sink no lower.A body whose total density is exactly equal to that of water will have "neutral buoyancy",and will "float submerged" so to speak. That is, none of it will remain above the surface,but once submerged, it will neither rise nor sink further, but will maintain the depth at whichit is placed.
If the water is at standard temperature and pressure (25 degrees Celsius and one atmosphere), the water has density of 1 kilogram per liter. When submerged, the metal displaces its own volume of water. Therefore, the volume of the metal is 1 liter, and the density of the metal is 6 kg/liter.
The buoyant force exerted on an object submerged in water is determined by the object's volume and the density of the fluid it is in. Specifically, the buoyant force is equal to the weight of the fluid that the object displaces.