Wiki User
∙ 11y agoThe ships are not made of solid iron. They contain much empty space where the cargo and or passengers go. So the overall density of a ship: its TOTAL mass divided by its TOTAL volume is less than that of water.
Wiki User
∙ 11y agoLook up the density of steel. It should be no different in a spaceship than on Earth.
You can, but only if you know the density (or specific gravity) of the steel. Since steel is an alloy, its density is variable - depending on the other substances and their proportions in the alloy.
Depends, of course, on the density of the steel.
The density is not affected by gravity. it is a measure of a substances mass to volumn. Therefor the density of a steel hammer on a spaceship is the same as one on earth (approx 7850 kg/m^3)
It depends on the density of steel. There are many types of steel depending on what substances are alloyed together. The density of stainless steel can range from 7.5 to 8 grams per cm3. But there are other types of steel that are denser or lighter.
The answer depends on the shape of the object. Ships, made from steel, which is denser than water, do float!
The answer depends on the shape of the object. Ships, made from steel, which is denser than water, do float!
Steel ships float on water because their shape is designed to displace enough water to create a buoyant force that is greater than the weight of the ship. This buoyant force allows the ship to float despite the steel being denser than water.
The answer depends on the shape of the object. Ships, made from steel, which is denser than water, do float!
Yes, silver would float in mercury because silver is less dense than mercury. This means that silver would displace an amount of mercury equal to its own weight, allowing it to float on top of the mercury.
What matters when you consider the ability of something to float is the mass of water it can displace. This needs to be greater than the mass of the ship. A steel ship is not steel all the way through, a lot of the inside is air, so the effective density is much smaller than if it were all steel.
If a substance floats in water, it is less dense than water. This means that its mass per unit volume is lower than that of water. Substances with lower density will float on top of substances with higher density.
A material needs a lower density than water to float in water. Ships float in water because their average density is lower than water. The average density includes the steel hull and the air inside the hull.
Steel has the greatest density of the three.
The steel has a density greater than water; but the ship does not. To calculate density, you divide mass by volume. This includes the mass - and the volume - of any air trapped inside the ship.
Steel ships float because of their structure, which is designed to displace a volume of water greater than their own weight. The buoyancy produced by displacing water allows the ship to float and stay afloat. Additionally, the design of the ship prevents water from entering and sinking it.
Plastic can sink if it is denser than water, while steel can float if it is shaped in a way that traps air, increasing its overall density and allowing it to float. This concept is related to the principle of buoyancy, where an object will float if it is less dense than the fluid it displaces.