line graph!
An area graph. It fills the area between a line and the line below or the x-axis.
Actually, a linear inequality, such as y > 2x - 1, -3x + 2y < 9, or y > 2 is shaded, not a linear equation.The shaded region on the graph implies that any number in the shaded region is a solution to the inequality. For example when graphing y > 2, all values greater than 2 are solutions to the inequality; therefore, the area above the broken line at y>2 is shaded. Note that when graphing ">" or "=" or "
yes, if you have a graph with a line....take a look at the picture I linked. ok so the distance covered is simply the area of the graph. do you know how to calculate the area of unusual shapes like this one?? if you don't, you simply divide the shape into 3 parts: two triangles and the square. the find the area of each one and add them together. the area is measured in metres.
It can represent the graph of a strict inequality where the inequality is satisfied by the area on one side of the dashed line and not on the other. Points on the line do not satisfy the inequality.
A line that is decreasing Apex
A climate graph typically shows annual patterns of precipitation (usually in bars) and temperature (usually as a line graph). This graph helps visualize how temperature and precipitation levels fluctuate throughout the year in a specific location, providing insights into the climate of that area.
Graphing speed refers to how quickly and efficiently a graph can be generated, displayed, or updated on a digital device or software. It is often measured in terms of frames per second (fps) or rendering time, indicating how smoothly data points or visual elements can be plotted or manipulated on a graph. Faster graphing speed allows for more real-time analysis and visualization of data.
The momentum-time graph is the integral of the force-time graph. that is, it is the area under the curve of the f-t graph.The momentum-time graph is the integral of the force-time graph. that is, it is the area under the curve of the f-t graph.The momentum-time graph is the integral of the force-time graph. that is, it is the area under the curve of the f-t graph.The momentum-time graph is the integral of the force-time graph. that is, it is the area under the curve of the f-t graph.
To determine the volume from a graph, you would need to calculate the area enclosed by the graph and the axes. If the graph represents a shape with known cross-sectional area, you can integrate the shape's area over the interval represented by the graph to find the volume.
If you're graphing velocity vs. time, you're denoting what velocity you're moving at various points in time. The slope of the line at any given point is your acceleration at that time. The area beneath the graph would be the total distance traveled. For example, if you were traveling at 50mph for one hour, the graph would be a straight line parallel to the x axis. The area will be 1 hour * 50 miles per hour = 50 miles. By the way, if you can get this concept down, you've figured out the basic ideas of differential and integral calculus! The slope of the graph is the differential, and the area under the curve is the integral.
Although it is not stated in the question the x-axis would probably consist of temperature (in a given area) and the y-axis would consist of precipitation (in a given area). The precipitation would increase or decrease as the temperature increased or decreased.
Changing seasons alter the availability of food in an area, and the altered temperature is unfavorable. The owls move to an area more suited to their needs, thus maximizing their survival rate.
The area under a position-time graph represents the displacement of an object. It is calculated by finding the area between the curve of the graph and the time axis. The units of the area will be in distance units (e.g., meters, kilometers).
There are 62,370 1 millimeter squares in a sheet of A4 graph paper that measures 210 mm by 297 mm. This calculation is obtained by multiplying the length of the paper (210 mm) by the width of the paper (297 mm).
To find the area under a graph, you can use calculus by integrating the function that represents the graph. This involves finding the definite integral of the function over the desired interval. The result of the integration will give you the area under the graph.
A scale which uses the area of the graph to its maximum.
An area graph. It fills the area between a line and the line below or the x-axis.