The larger \(n\) gets, the smaller the standard deviation of the sampling distribution gets. (Remember that the standard deviation for the sampling distribution of \(\overline X\) is \(\frac{\sigma}{\...The larger \(n\) gets, the smaller the standard deviation of the sampling distribution gets. (Remember that the standard deviation for the sampling distribution of \(\overline X\) is \(\frac{\sigma}{\sqrt{n}}\).) This means that the sample mean \(\overline X\) must be closer to the population mean \(\mu\) as \(n\) increases.
The larger n gets, the smaller the standard deviation of the sampling distribution gets. (Remember that the standard deviation for the sampling distribution of \(\overline X\) is \(\frac{\sigma}{\sqrt...The larger n gets, the smaller the standard deviation of the sampling distribution gets. (Remember that the standard deviation for the sampling distribution of \(\overline X\) is \(\frac{\sigma}{\sqrt{n}}\).) This means that the sample mean \(\overline x\) must be closer to the population mean \(\mu\) as \(n\) increases.
The larger n gets, the smaller the standard deviation of the sampling distribution gets. (Remember that the standard deviation for the sampling distribution of \(\overline X\) is \(\frac{\sigma}{\sqrt...The larger n gets, the smaller the standard deviation of the sampling distribution gets. (Remember that the standard deviation for the sampling distribution of \(\overline X\) is \(\frac{\sigma}{\sqrt{n}}\).) This means that the sample mean \(\overline x\) must be closer to the population mean \(\mu\) as \(n\) increases.