When a substance is heated, a heating curve shows the changes in temperature as well as the physical state of the substance. A heating curve can chart the temperature versus the time elapsed as the changes take place.
Total value of 4 factors of production including:LandLaborCapitalEnterprizeThe PPC curve adds all these factor ups and create a curve show the possible optimum level of production for 2 competing goods.
In simple, non-mathematical language, B-Splines will create a smooth curve through automatic smoothing between two consecutive control points without having to adjust any handles like one would have to do with Beziers.
To create a demand curve for a product or service, one must analyze the relationship between the price of the product or service and the quantity demanded by consumers. By conducting market research, collecting data on consumer preferences, and observing how changes in price affect demand, a demand curve can be plotted to show the quantity of the product or service that consumers are willing to buy at different price points.
To predict how people will change their buying habits when prices change. A market demand curve allows an economist to predict the total sales of an item at several different prices.
heating curve is hotter than the cooling curve
When a substance is heated, a heating curve shows the changes in temperature as well as the physical state of the substance. A heating curve can chart the temperature versus the time elapsed as the changes take place.
The heating curve for glass would show a gradual and steady increase in temperature until it reaches its softening point, where it begins to deform. In contrast, the heating curve for water would show a relatively stable temperature increase until it reaches its boiling point, at which point the temperature remains constant until all the water has evaporated.
2 ponts to create an S curve
That is the boiling point
it must be an atom
When a substance is heated, a heating curve shows the changes in temperature as well as the physical state of the substance. A heating curve can chart the temperature versus the time elapsed as the changes take place.
The heating curve for frozen alcohol would be similar to water in that it will initially warm up until reaching its melting point, then heat continues to go into breaking bonds (lattice) without a temperature increase. However, the specific heat capacity and melting point of alcohol are different from water, so the temperature changes and plateau durations would vary.
The heating curve of water and the heating curve of glass are similar in that they both illustrate the relationship between the temperature of the substance and the amount of energy added to it as it is heated. However, there are some key differences between the two curves. One major difference is that water has a much higher specific heat capacity than glass. This means that water requires more energy to raise its temperature by a certain amount than glass does. As a result, the heating curve for water will be flatter than the heating curve for glass, indicating that it takes more energy to raise the temperature of water. Another difference is that water has a phase change (melting and boiling) at certain temperature ranges, whereas glass does not. So, the heating curve of water will have a steep increase in temperature at the freezing point and the boiling point, indicating the energy absorbed during the phase changes. Additionally, the thermal expansion coefficient of water is much higher than that of glass, meaning that water expands much more than glass when heated, which also affects the heating curve. In summary, the heating curve of water is flatter and has more steep increases due to phase changes and thermal expansion, while the heating curve of glass is steeper and does not have phase changes. John Carlo Coronado
The curve showing the relationship between temperature and time for a given amount of liquid heated at a constant rate is called a "heating curve." This curve is mapped out on a graph.
A temperature vs. time curve is often represented by a heating or cooling curve. During heating, temperature increases over time at a steady rate until reaching a plateau where a substance changes state. During cooling, temperature decreases over time at a steady rate until reaching another plateau at the substance's freezing or melting point.
In a pure solvent, the heating curve shows a steady increase in temperature until it reaches its boiling point, where a plateau occurs due to phase change. In a solution, the heating curve will typically show a higher boiling point than the pure solvent due to the presence of solute particles that disrupt the solvent's intermolecular forces, requiring more energy to reach boiling.