Inverse Power Law (IPL)-Lognormal Model: Difference between revisions
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::<math>\,\!\mu {}'=\beta _{0}+\beta _{1}\times ln\left ( V \right )</math> | ::<math>\,\!\mu {}'=\beta _{0}+\beta _{1}\times ln\left ( V \right )</math> | ||
where V is the voltage and its natural log transform is used in the above life stress relation. | where ''V'' is the voltage and its natural log transform is used in the above life stress relation. | ||
This function can be written in the following way: | This function can be written in the following way: | ||
::<math>\,\!</math> | ::<math>\,\!e^{\mu {}'}=e^{\alpha _{0}+\alpha _{1}log\left ( V \right )}</math> | ||
The above equation is the general log-linear model in ALTA. In ALTA, the coefficients are denoted by . | The above equation is the general log-linear model in ALTA. In ALTA, the coefficients are denoted by . | ||
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In fact, the above model also can be expressed using the traditional IPL (inverse power law) model: | In fact, the above model also can be expressed using the traditional IPL (inverse power law) model: | ||
::<math>\,\!</math> | ::<math>\,\!e^{\mu {}'}=\frac{1}{K\cdot V^{n}}</math> | ||
where <math>\,\!</math> and <math>\,\!</math> . | where <math>\,\!</math> and <math>\,\!</math> . |
Revision as of 22:11, 10 June 2014
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