it is easier to see that when the volume of an object is so and so, it is this mass. because an object with more mass could have less volume than an object with larger volume.
"atomic weight" is always on the x-axis of the mass spectrum graph.
Density = Mass/Volume so Volume = Mass/Density. Therefore the Volume can be calculated. Volume = Area [of cross section] * Width So Width = Volume/Area.
Density is the slope of the line. density = mass/volume = constant. Since mass and volume have a linear relationship, then that constant is also the slope of the line on a graph of a comparison of mass to volume ratios.
You need to know the density o f Mg D = Mass/Volume Mass = Density * volume Density= 1.74 grams per cubic centimeter Volume = 2.5 * 3.5 * 1.5 Mass = Density * volume
volume = mass divided by density V = m/d
To graph mass vs volume, plot mass on the y-axis and volume on the x-axis. Each data point will represent a specific object or substance, showing how mass changes with different volumes. The relationship between mass and volume can help determine density, which is a key property of the material being examined.
Density is defined as mass/volume, and since slope is rise/run, with the rise being the y-axis and the run the x-axis, mass should be the y-axis and volume the x-axis. For example, you would put grams on the y-axis and ml on the x-axis.
The moment of inertia about the z-axis is given by the equation I = mr^2, where m is the mass and r is the distance from the z-axis. For the moment of inertia to be zero, the mass must be placed at the origin (r=0) along the z-axis. So, the 8.4kg mass must be placed at the origin (0,0,0) to have a moment of inertia of zero about the z-axis.
When graphing an unchanging mass over a changing volume, you would plot the mass value as a constant horizontal line on the y-axis and the volume values on the x-axis. This would result in a flat line parallel to the x-axis representing the constant mass value across different volumes.
When the vertical axis represents "number of things" and the horizontal represents "volume of the thing"---slope is change in vertical over change in horizontal, so units of the slope would be "number/volume", which is density.
It equals the mass of the object placed in it.
The volume of water is directly proportional to its mass. This means that as you increase the volume of water, the mass will also increase proportionally. Conversely, if you decrease the volume of water, the mass will decrease accordingly.
Liquids have a definite mass and volume, but not a shape.
To mathematically determine density, you need the mass of the object or substance and its volume. The density is calculated by dividing the mass by the volume.
The object's density relates its mass and volume, determined by dividing mass by volume. If an object's density is greater than that of the fluid it is placed in, it will sink; if less, it will float.
The conclusion supported by the data in the table depends on the actual values provided. If the density remains constant for all substances, you can conclude that density is consistent. If the density changes with mass and volume, you can infer a relationship between mass, volume, and density.
It is approx 1.36 g/mL.