Construct a table.You may give a range for the P-value.Can you conclude that the yield strength of CP titanium welds varies with the cooling rate?

e1s2kat26 2021-08-08 Answered

The yield strength of CP titanium welds was measured for welds cooled at rates of \(10^{\circ}C/s,15^{\circ}C/s\ \text{and}\ 28^{\circ}C/s\). The results are presented in the following table. (Based on the article “Advances in Oxygen Equivalence Equations for Predicting the Properties of Titanium Welds,” D. Harwig, W. Ittiwattana, and H. Castner, The Welding Journal, 2001:126s-136s.)

\(\begin{array}{} \hline \text{Cooling Rate}&\text{Yield Strenghts}\\ \hline 10&71.00&75.00&79.67&81.00&75.50&72.50&73.50&78.50\\ 15&63.00&68.00&73.00&76.00&79.67&81.00\\ 28&68.65&73.70&78.40&84.40&91.20&87.15&77.20&80.70&84.85&88\\ \hline \end{array}\)
a. Construct an ANOVA table. You may give a range for the P-value. b. Can you conclude that the yield strength of CP titanium welds varies with the cooling rate?

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berggansS
Answered 2021-08-09 Author has 23660 answers
a) 0.010<P<0.050 b) Yes
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asked 2021-05-17

The yield strength of CP titanium welds was measured for welds cooled at rates of \(10^{\circ} \mathrm{C} ; \mathrm{s}, 15^{\circ} \mathrm{C} ; \mathrm{s}, \text{ and } 28^{\circ} \mathrm{C} ; \mathrm{s}\). The results are presented in the following table. (Based on the article &ldquo;Advances in Oxygen Equivalence Equations for Predicting the Properties of Titanium Welds,&rdquo; D. Harwig, W. Ittiwattana, and H. Castner, The Welding Journal, 2001:126s-136s.)

\(\begin{matrix} \hline \text{Cooling Rate}&\text{Yiled Strengths}\\ \hline 10&71.00&75.00&79.67&81.00&75.50&72.50&73.50&78.50&78.50\\ 15&63.00&68.00&73.00&76.00&79.67&81.00\\ 28&68.65&73.70&78.40&84.40&91.20&87.15&77.20&80.70&84.85& 88.40\\ \hline \end{matrix}\)
a. Construct an ANOVA table. You may give a range for the P-value. b. Can you conclude that the yield strength of CP titanium welds varies with the cooling rate?

asked 2021-05-26
The yield strength of CP titanium welds was measured for welds cooled at rates of 10^{\circ} \mathrm{C} / \mathrm{s}, 15^{\circ} \mathrm{C} / \mathrm{s}, and 28^{\circ} \mathrm{C} / \mathrm{s}. The results are presented in the following table. (Based on the article “Advances in Oxygen Equivalence Equations for Predicting the Properties of Titanium Welds,” D. Harwig, W. Ittiwattana, and H. Castner, The Welding Journal, 2001:126s-136s.) Cooling Rate 101528amp; Yield Strengths amp;71.00amp;63.00amp;68.65amp;75.00amp;68.00amp;73.70amp;79.67amp;73.00amp;78.40amp;81.00amp;76.00amp;84.40amp;75.50amp;79.67amp;91.20amp;72.50amp;81.00amp;87.15amp;73.50amp;amp;77.20amp;78.50amp;amp;80.70amp;78.50amp;amp;84.85amp;88.40 a. Construct an ANOVA table. You may give a range for the P-value. b. Can you conclude that the yield strength of CP titanium welds varies with the cooling rate?
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