A researcher compares two compounds (1 and 2) used in the manufacture of car tires that are designed to reduce braking distances for SUVS equipped with the tires. The mean braking distance for SUVS equipped with tires made with compound 1 is 70 feet, with a population standard deviation of 11.6. The mean braking distance for SUVs equipped with tires made with compound 2 is 77 feet, with a population standard deviation of 9.8. Suppose that a sample of 35 braking tests are performed for each compound. Using these results, test the claim that the braking distance for SUVS equipped with tires using compound 1 is shorter than the braking distance when compound 2 is used. Let μ₁ be the true mean braking distance corresponding to compound 1 and μ₂ be the true mean braking distance corresponding to compound 2. Use the 0.05 level of significance. Step 3 of 5: Find the p-value associated with the test statistic. Round your answer to four decimal places. Answer How to enter your answer (opens in new window) p = || T Tables Keypad Keyboard Shortcuts Previous Step Answers

Glencoe Algebra 1, Student Edition, 9780079039897, 0079039898, 2018
18th Edition
ISBN:9780079039897
Author:Carter
Publisher:Carter
Chapter10: Statistics
Section10.5: Comparing Sets Of Data
Problem 14PPS
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A researcher compares two compounds (1 and 2) used in the manufacture of car tires that are designed to reduce braking distances for SUVS equipped with the tires.
The mean braking distance for SUVS equipped with tires made with compound 1 is 70 feet, with a population standard deviation of 11.6. The mean braking distance for
SUVs equipped with tires made with compound 2 is 77 feet, with a population standard deviation of 9.8. Suppose that a sample of 35 braking tests are performed for
each compound. Using these results, test the claim that the braking distance for SUVS equipped with tires using compound 1 is shorter than the braking distance when
compound 2 is used. Let μ₁ be the true mean braking distance corresponding to compound 1 and μ₂ be the true mean braking distance corresponding to compound 2.
Use the 0.05 level of significance.
Step 3 of 5: Find the p-value associated with the test statistic. Round your answer to four decimal places.
Answer
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p = ||
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Transcribed Image Text:A researcher compares two compounds (1 and 2) used in the manufacture of car tires that are designed to reduce braking distances for SUVS equipped with the tires. The mean braking distance for SUVS equipped with tires made with compound 1 is 70 feet, with a population standard deviation of 11.6. The mean braking distance for SUVs equipped with tires made with compound 2 is 77 feet, with a population standard deviation of 9.8. Suppose that a sample of 35 braking tests are performed for each compound. Using these results, test the claim that the braking distance for SUVS equipped with tires using compound 1 is shorter than the braking distance when compound 2 is used. Let μ₁ be the true mean braking distance corresponding to compound 1 and μ₂ be the true mean braking distance corresponding to compound 2. Use the 0.05 level of significance. Step 3 of 5: Find the p-value associated with the test statistic. Round your answer to four decimal places. Answer How to enter your answer (opens in new window) p = || T Tables Keypad Keyboard Shortcuts Previous Step Answers
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