The simple answer is yes. I know because I've used them in the past. However, I can't for the life of me find any examples at this point in time. I'll keep looking.
Consider how temperature affects the purchase of gas for your car...Refer to the expansion coefficients for the particular API Gravity @ 60 degrees F. These are referenced by ASTM Charts.
Example:
Ethanol @ at a gravity of 50.5 and say 70 degrees F would use a coefficient of .9940, what that is saying in simplified terms is if you but 100 gallons exactly and it is 70 degrees F, if you are buying net gallons or temperature compensated, you would pay for .9940 x 100 or 99.40 gallons.
This is how oil companies sell to each other.
Unfortunately, if you buy 100 gallons exactly from a pump at a station and it's 70 degrees F, you pay for 100 gallons. Doesn't hardly seem fair huh?
So let's do some math. Let's say I'm a fuel seller. I buy 10,000 gallons of fuel wholesale, temperature compensated or net gallons at 70 degrees F. So I pay for 9940 gallons. Remember 10,000 x .9940 = 9940, now I put it in my storage tank and lets say it's in Arizona and the ground temperature remains at 70 degrees F.
I just made 60 gallon profit on my sale. Since I sell it in gross gallons or uncompensated. Not a bad gig huh?
60 gallons x $4.00 / gallon = $240.00 profit clear.
So now you understand temperature compensation I hope? Smile for the camera next time you fill up. Especially if it's 90 degrees out.
EDIT: This would be true if the "Ground" temperature was EVER 70 Degrees. It is not.
When underground storage tanks for gas stations were first introduced, they were buried only several feet underground, where the temperature did indeed vary (but note, even 3 feet below ground would almost never see 70 degrees, only if it was about 100+ outside). Today, gas storage tanks are stored at 20+ feet below ground, where the temperature is a steady 55 degrees + or - 2 degrees, REGARDLESS of surface air temperature.
Graphs show the relationship of one quantity to another. For example, it may show how the density of a material changes when the temperature is increased, or it may show the inflation depending on time. Vertically you show the quantity of interest (density, inflation) and horizontally what it depends on (temperature, time). You measure / look up / guess for each temperature the density, and draw a dot which is above the given temperature and to the right of the given density, and you do that for many densities.
Specific heat capacity
No because box and whisker plots are related to cumulative frequency curves
The temperature and luminosity of stars.
Solutions may be closed or open regions or they may be points within a region (for example, grid points for integer solutions), or points of intersection between curves or between curves and the axes. It all depends on what the graphs and the solutions are.
big phrestoric graphs
B. W
A straight line.
A graph is a visual representation of numerical or other information, often used for comparative purposes. Mathematical graphs include those in geometry that indicate points, lines, and curves within a Cartesian coordinate system. Other types of graphs (bar graphs, pie graphs) display numerical values or percentages as lengths or areas, and may use colors to indicate the data for more than one set of values.
The intersection of the individual graphs. In the simplest case, the graph for each equation consists of a line (or some curve); the intersection is the points where the lines or curves meet.
The Hertzsprung-Russell diagram graphs stars' brightness and corresponding temperatures in addition to their classifications. The stars' colors are due to their temperatures.
Line graph - temperature Bar graph - precipitation