Determine the probability that a bearing lasts at least 6000 hours. Now, EXAMPLE 4.21 I Bearing Wear The time to failure (in hours) of a bearing in a mechanical shaft is satisfactorily modeled as a Weibull random variable with B = 1/2 and 8 = 5000 hours. Determine the mean time until failure. From the expression for the mean, 6000 P(X > 6000) = 1 – F(6000) = exp| 5000 = e-1.44 = 0.237 E(X) = 5000T[1+ (1/2)] = 500or[1.5] = 5000×0.5/T ni anoitonul vpienob vilidedong botoolaz lo adasn od nodw isi) so2 nso sw.nonomt ytiens Practical Interpretation: Consequently, only 23.7% of all ai nobudinalb lludisW orl = 4431.1 hours olludiialb dglolaH odt.oalA.gotudi bearings last at least 6000 hours.
Determine the probability that a bearing lasts at least 6000 hours. Now, EXAMPLE 4.21 I Bearing Wear The time to failure (in hours) of a bearing in a mechanical shaft is satisfactorily modeled as a Weibull random variable with B = 1/2 and 8 = 5000 hours. Determine the mean time until failure. From the expression for the mean, 6000 P(X > 6000) = 1 – F(6000) = exp| 5000 = e-1.44 = 0.237 E(X) = 5000T[1+ (1/2)] = 500or[1.5] = 5000×0.5/T ni anoitonul vpienob vilidedong botoolaz lo adasn od nodw isi) so2 nso sw.nonomt ytiens Practical Interpretation: Consequently, only 23.7% of all ai nobudinalb lludisW orl = 4431.1 hours olludiialb dglolaH odt.oalA.gotudi bearings last at least 6000 hours.
MATLAB: An Introduction with Applications
6th Edition
ISBN:9781119256830
Author:Amos Gilat
Publisher:Amos Gilat
Chapter1: Starting With Matlab
Section: Chapter Questions
Problem 1P
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I have a question about this practice problem from my textbook. I included an image. I'm having some trouble understanding the gamma
![Determine the probability that a bearing lasts at least
6000 hours. Now,
EXAMPLE 4.21 I Bearing Wear
The time to failure (in hours) of a bearing in a mechanical
shaft is satisfactorily modeled as a Weibull random variable
with B = 1/2 and 8 = 5000 hours. Determine the mean time
until failure.
From the expression for the mean,
6000
P(X > 6000) = 1 – F(6000) = exp|
5000
= e-1.44
= 0.237
E(X) = 5000T[1+ (1/2)] = 500or[1.5] = 5000×0.5/T ni anoitonul vpienob vilidedong botoolaz lo adasn od
nodw isi) so2 nso sw.nonomt ytiens Practical Interpretation: Consequently, only 23.7% of all
ai nobudinalb lludisW orl
= 4431.1 hours
olludiialb dglolaH odt.oalA.gotudi bearings last at least 6000 hours.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F3f8a5cfe-f945-49c3-91cb-ad8de9565ec6%2Fa0832750-0529-481e-bbdc-e5d0a9de6425%2Fh5slmoo.png&w=3840&q=75)
Transcribed Image Text:Determine the probability that a bearing lasts at least
6000 hours. Now,
EXAMPLE 4.21 I Bearing Wear
The time to failure (in hours) of a bearing in a mechanical
shaft is satisfactorily modeled as a Weibull random variable
with B = 1/2 and 8 = 5000 hours. Determine the mean time
until failure.
From the expression for the mean,
6000
P(X > 6000) = 1 – F(6000) = exp|
5000
= e-1.44
= 0.237
E(X) = 5000T[1+ (1/2)] = 500or[1.5] = 5000×0.5/T ni anoitonul vpienob vilidedong botoolaz lo adasn od
nodw isi) so2 nso sw.nonomt ytiens Practical Interpretation: Consequently, only 23.7% of all
ai nobudinalb lludisW orl
= 4431.1 hours
olludiialb dglolaH odt.oalA.gotudi bearings last at least 6000 hours.
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