The amount of temperature represented by each mark on the y-axis of a temperature graph typically depends on the scale chosen for the graph. Common scales include Celsius or Fahrenheit, with each mark often representing a fixed interval, such as 1°C or 2°F. To determine the exact value per mark, you would need to check the labels or legend associated with the graph.
To determine the amount of pressure represented by each mark on the Y-axis of a pressure graph, you need to look at the scale indicated on the graph. Each mark typically corresponds to a specific pressure unit, such as pascals, atmospheres, or millibars, and the value for each increment can often be found in the graph's legend or axis labeling. If no specific units are provided, it may require further context from the accompanying text or data source to interpret the increments accurately.
The y-axis.
It can be casually called the x intercept, but it/they is/are the root(s) of the function represented by the graph
something which decreases over time e.g. speed of a car when the brakes are applied. Time on the x-axis and speed on the y-axis of the graph
A graph of Charles' Law shows the relationship between Volume vs. Temperature. Volume is placed on the y axis and temperature on the x axis. The relationship is linear if temperature is in units of Kelvin.
Time is plotted on the horizontal axis.
To determine the amount of pressure represented by each mark on the Y-axis of a pressure graph, you need to look at the scale indicated on the graph. Each mark typically corresponds to a specific pressure unit, such as pascals, atmospheres, or millibars, and the value for each increment can often be found in the graph's legend or axis labeling. If no specific units are provided, it may require further context from the accompanying text or data source to interpret the increments accurately.
A dual-axis graph can be used to show both temperature (on one axis) and precipitation (on another axis) on the same graph. Alternatively, a line graph can be used with two different lines representing temperature and precipitation over time.
Distance is usually represented on the y-axis of a distance-time graph. The x-axis typically represents time.
A graph is typically represented in terms of a y-axis (vertical), x-axis (horizontal) and sometimes a z-axis as well (at right angles to the y & x) if it's a 3-D graph.
A graph of Charles's Law would show a direct relationship between the volume of a gas and its temperature at constant pressure. As temperature increases, the volume of the gas also increases proportionally. This relationship is represented by a straight line passing through the origin on a graph where the x-axis represents temperature and the y-axis represents volume.
The y-axis.
It can be casually called the x intercept, but it/they is/are the root(s) of the function represented by the graph
something which decreases over time e.g. speed of a car when the brakes are applied. Time on the x-axis and speed on the y-axis of the graph
parallax
Speed is represented by the slope of a distance-time graph, where steeper slopes indicate faster speed. Acceleration is represented by the slope of a speed-time graph, where a steeper slope indicates a greater acceleration.
Whichever axis you like. To some extent it depends on whether temperature is the independent or the dependent variable. If the graph is of the temperature of some food when it has been in an over for different lengths of time, then the independent variable is the time and the temperature should be on the vertical axis. However, if the graph is of the temperature of the same food and the number of bacteria present in it, then the temperature is the independent variable and should be on the horizontal axis.