If two perfect spheres of different sizes have the same mass, then the larger ball has a lower density and the smaller ball has a higher density. This is because density is the amount of mass in a given volume, and density is obviously higher if there is a smaller volume for a given amount of mass.
Smaller objects tend to have more density than larger objects because their mass is concentrated in a smaller volume, making their particles more tightly packed together. In contrast, larger objects have their mass distributed over a larger volume, leading to lower density.
Density is a measure of how tightly packed the mass of an object is within its volume. If two objects have the same mass but different volumes, the object with the smaller volume will have a higher density as the mass is concentrated in a smaller space. Conversely, the object with the larger volume will have a lower density as the mass is spread out over a larger area.
Mass and volume are related through density, which is the amount of mass per unit volume of a substance. An object with a larger volume but the same mass as a smaller object will have a lower density. Conversely, an object with the same volume but more mass will have a higher density.
Not necessarily. Mass and volume are related but independent properties of an object. An object with a larger mass may or may not have a larger volume, as volume depends on the physical dimensions of the object, while mass is a measure of the amount of matter in the object.
Volume = Mass/Density. In a larger container the mass of the gas remains unchanged, the density decreases so the volume increases.
A container holds volume.
If two perfect spheres of different sizes have the same mass, then the larger ball has a lower density and the smaller ball has a higher density. This is because density is the amount of mass in a given volume, and density is obviously higher if there is a smaller volume for a given amount of mass.
Smaller objects tend to have more density than larger objects because their mass is concentrated in a smaller volume, making their particles more tightly packed together. In contrast, larger objects have their mass distributed over a larger volume, leading to lower density.
Density is a measure of how tightly packed the mass of an object is within its volume. If two objects have the same mass but different volumes, the object with the smaller volume will have a higher density as the mass is concentrated in a smaller space. Conversely, the object with the larger volume will have a lower density as the mass is spread out over a larger area.
Mass and volume are related through density, which is the amount of mass per unit volume of a substance. An object with a larger volume but the same mass as a smaller object will have a lower density. Conversely, an object with the same volume but more mass will have a higher density.
The only "evidence" you need is the definition of density, which is mass divide by volume. For example, if you divide the same mass by a larger volume, you get a smaller result.
Not necessarily. Mass and volume are related but independent properties of an object. An object with a larger mass may or may not have a larger volume, as volume depends on the physical dimensions of the object, while mass is a measure of the amount of matter in the object.
When the volume increases and the mass decreases, the density of the object decreases. This means that the object becomes less compact or dense for the given volume. The relationship between volume and mass is important when considering the physical properties of an object.
Yes, the size of an object can affect both its mass and volume. Generally, larger objects will have greater mass and volume compared to smaller objects of the same material. This is because mass is a measure of the amount of matter in an object, while volume is the amount of space it occupies.
To determine the mass of water inside the container, you would need to know the volume of the water and its density. The mass can be calculated using the formula: mass = volume x density.
Mass is larger on bigger planets and smaller on smaller planets. The larger the planet, the higher its gravitational pull and the greater its mass.