Because the ship is not made up of pure metal; it has many empty spaces (with air) in between.
A solid steel block sinks in water because its density is greater than that of water. However, a steel ship is designed with a shape that allows it to displace enough water to create a buoyant force greater than its weight, allowing it to float. The overall density of the ship is less than that of water, allowing it to stay afloat.
To sink, the object's density must be greater than the density of water.To sink, the object's density must be greater than the density of water.To sink, the object's density must be greater than the density of water.To sink, the object's density must be greater than the density of water.
There's no such condition as "volume greater than its mass", because those two quantities are fundamentally different physical characteristics, described in different physical unts. It would be a lot like saying that "its speed is greater than its age" or "its weight is less than its color". If you're careful about the units, and (the object's mass) divided by (its volume) is less than ' 1 ', then it floats.
No.
Most sirs are slightly denser than water. Particularly fat sirs may not be.
it's because the density may be greater than the body of water that is why the stone sink...
A stone sink in water because it is denser than water and displaces less water than its weight. A ship, on the other hand, is designed to displace a greater volume of water than its weight, allowing it to float on the water's surface. Additionally, the shape of a ship's hull and the air it contains also contribute to its buoyancy.
A piece of stone sinks in water because its density is greater than that of water, leading to a net downward force. In contrast, a ship with a large weight can float because its shape and design displace enough water to create an upward buoyant force that exceeds its weight, as per Archimedes' principle of buoyancy.
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.
A ship floats on water because it has a lower density than water. The buoyant force acting on the ship is greater than its weight, allowing it to stay afloat.
An object will sink if its density is greater than that of water (or another liquid in which it is placed). If its density is less, it will float. In the case of the ship, the air in the ship helps reduce the total density.
The general rule is that an object will sink if it has a greater density than the liquid in which it is placed.
A stone will sink in water because its density is greater than that of water. This means that the weight of the stone is heavier than the weight of the displaced water, causing it to sink.
Density is a measure of how much mass is contained in a given volume. Objects will float if their density is less than the density of the fluid they are in and sink if their density is greater. For example, a ship floats because its density is less than that of water, while a rock sinks because its density is greater.
A solid steel block sinks in water because its density is greater than that of water. However, a steel ship is designed with a shape that allows it to displace enough water to create a buoyant force greater than its weight, allowing it to float. The overall density of the ship is less than that of water, allowing it to stay afloat.
It has to be greater than the density of the fluid in which it is to be floated.
Sea water has salt, and therefore a higher density.