Liquids are capable of changing shape, but they will always have a constant volume. If one were to pour a liquid into a random container, it would conform to the container, but not change physical volume in the process.
You can use some type of calibrated container: a graduated cylinder or beaker, generally. Another method would be to measure the mass of the liquid (any container will do, after you have tared the container) and divide by the density of the liquid (if you know it). These work for any liquid as long as it doesn't evaporate quickly. Also, the volume of a liquid may depend on temperature, so the volume at zero Celsius will be different from the volume at 98 Celsius, for example.
The meaning of indefinite volume is that the sample would expand to fill the entire container. Gases are the only thing to do this.
Put a container of known volume on a scale, and tare it. Then fill the container exactly to the full mark with the liquid, and record the weight. Divide the weight by the volume to get the density. The fact that it is volatile brings several considerations. If it is so volatile that some has evaporated by the time you weigh it, then it may be necessary to cap the container. Be sure to tare with the container and cap. Also, if it is a toxic volatile liquid, you may need to work in a fume hood.
In a container the volume remain constant but the pressure increase.
Measure the container itself, or measure the mass of the liquid and the container and find the density of that certain liquid has and isolate for the volume.
The gas state. A gas takes up the volume of the container in which it is placed.
A liquid. A gas has no definite volume, as it's volume is whatever the volume of the container it is in happens to be. A solid, by it's nature of being solid, will not take on the shape of it's container.
Depending on the shape of the container for the liquid, you can find the volume different ways. If the container is a cube, the volume is (base * Width * height). if the container is a cylinder, the volume is (PI * Radius2 * height). The answer you would get from these equations is expressed in units cubed (example: cm3).
The volume of an object is determined by the product of the surface area and the height of the object. Hence if the big container has a bigger height then the volume would certainly be greater. However, when talking about the volume of the liquid, it will be constant. This is because, although the height of the liquid will be reduced by putting it into a bigger container, the surface area is increased. Therefore, it will be constant. ! xx
Liquids are capable of changing shape, but they will always have a constant volume. If one were to pour a liquid into a random container, it would conform to the container, but not change physical volume in the process.
I would place it in a container full of liquid after measuring the liquid. I would measure the amount of liquid displaced by the object. That amount is equal to the volume of the irregular object if it is fully submerged in the liquid.
I would place it in a container full of liquid after measuring the liquid. I would measure the amount of liquid displaced by the object. That amount is equal to the volume of the irregular object if it is fully submerged in the liquid.
All else being equal the pressure would fall
That would be a gas.
Gases.If thee is as much liquid as the container fits, then liquids would work too.
It depends on what information you have. If the liquid is stored in a container of which the dimensions are known, then you must calculate the volume of the container. You can simply search google for the formulae for the volume of a cube, cylinder, sphere etc. If the dimensions are not known, but the weight and density of the fluid is, then the volume can be calculated as: volume = weight (divided by) density