What is the sampling distribution of x when μ = 0? Normal with mean 1.1 and standard deviation 3.3333. Normal with mean 0 and standard deviation 60. Normal with mean 0 and standard deviation 14.1421. Normal with mean 17 and standard deviation 0.1852. Do a Normal probability calculation to find the P-value. (Recall that the alternative hypothesis is two-sided.) Use Table A. Select the P-value obtained by your calculation. 0.7794 0.1151 0.2302 0.3849
What is the sampling distribution of x when μ = 0? Normal with mean 1.1 and standard deviation 3.3333. Normal with mean 0 and standard deviation 60. Normal with mean 0 and standard deviation 14.1421. Normal with mean 17 and standard deviation 0.1852. Do a Normal probability calculation to find the P-value. (Recall that the alternative hypothesis is two-sided.) Use Table A. Select the P-value obtained by your calculation. 0.7794 0.1151 0.2302 0.3849
MATLAB: An Introduction with Applications
6th Edition
ISBN:9781119256830
Author:Amos Gilat
Publisher:Amos Gilat
Chapter1: Starting With Matlab
Section: Chapter Questions
Problem 1P
Related questions
Question

Transcribed Image Text:Macmillan Learning
Does the job satisfaction of assembly workers differ when their work is machine-paced rather than self-paced? Workers are
assigned either to an assembly line moving at a fixed pace or to a self-paced setting. All subjects work in both settings, in
random order. This is a matched pairs design. After two weeks in each work setting, the workers take a test of job satisfaction.
The response variable is the difference in satisfaction scores, self-paced minus machine-paced.
The parameter of interest is the mean μ of the differences in scores in the population of all assembly workers. The study of job
satisfaction requires that we test
Ho:μ = 0
Ha: 0
Suppose we know that differences in job satisfaction scores (self-paced minus machine-paced) in the population of all workers
follow a Normal distribution with standard deviation o = 60.
Data from 18 workers give x = 17. That is, these workers prefer the self-paced environment on the average. Because the
alternative is two-sided, the P-value is the probability of getting an x at least as far from μ = 0 in either direction as the
observed x = 17.
The figure shows the output of the P-Value of a Test of Significance applet.
Ho:
Ha:
μ = 0
Ομ> 0
Ομ<0
Ομ± 0
0=60
n = 18
O I have data, and the
observed X= 17
The truth about the
population is μ = 0
Sample Mean=17
P-value = 0.2293

Transcribed Image Text:Macmillan Learning
Does the job satisfaction of assembly workers differ when their work is machine-paced rather than self-paced? Workers are
assigned either to an assembly line moving at a fixed pace or to a self-paced setting. All subjects work in both settings, in
random order. This is a matched pairs design. After two weeks in each work setting, the workers take a test of job satisfaction.
The response variable is the difference in satisfaction scores, self-paced minus machine-paced.
The parameter of interest is the mean μ of the differences in scores in the population of all assembly workers. The study of job
satisfaction requires that we test
Ho:μ = 0
Ha: 0
Suppose we know that differences in job satisfaction scores (self-paced minus machine-paced) in the population of all workers
follow a Normal distribution with standard deviation o = 60.
Data from 18 workers give x = 17. That is, these workers prefer the self-paced environment on the average. Because the
alternative is two-sided, the P-value is the probability of getting an x at least as far from μ = 0 in either direction as the
observed x = 17.
The figure shows the output of the P-Value of a Test of Significance applet.
Ho:
Ha:
μ = 0
Ομ> 0
Ομ<0
Ομ± 0
0=60
n = 18
O I have data, and the
observed X= 17
The truth about the
population is μ = 0
Sample Mean=17
P-value = 0.2293
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