[size=150]This type of game can often be played in solo mode as individuals or in team mode in groups of 2.[br][br][/size][size=100]What information would you use to determine the top players in each mode (solo and team)? Explain your reasoning.[/size][size=150][br][/size]
[size=100]One person claims that the best solo players play game A. Another person claims that game B has better solo players. How could you display data to help inform their discussion? Explain your reasoning.[/size][br]
Describe the shape of the distribution.
[list][/list]Find the mean and median of the data.
Add 2 values to the original data set that are greater than 14.
[list][/list][left]Add 2 values to the original data set that are less than 6.[br][/left]
[list][/list][left]Add 1 value that is greater than 14 and 1 value that is less than 6 to the original data set.[/left]
[list][/list][left]Add the two values, 50 and 100, to the original data set.[/left]
[list][/list][left]Change the values so the distribution fits the description given to you by your teacher, then find the mean and median.[/left]
[list][/list][left]Find another group that created a distribution with a different description. Explain your work and listen to their explanation, then compare your measures of center.[/left]
[size=150]There are other measures of center, though, that are sometimes used. For each measure of center, list some possible advantages and disadvantages. Be sure to consider how it is affected by extremes.[br][br][/size][size=100][i]Interquartile mean[/i]: The mean of only those points between the first quartile and the third quartile.[/size]
[i]Midhinge[/i]: The mean of the first quartile and the third quartile.
[i]Midrange[/i]: The mean of the minimum and maximum value.
[i]Trimean[/i][i]:[/i] The mean of the first quartile, the median, the median again, and the third quartile. So we are averaging four numbers as the median is counted twice.