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Copy file name to clipboardExpand all lines: I/PbN.md
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| P378 | anova2-cochran |[Application of Cochran's theorem to two-way analysis of variance](/P/anova2-cochran)| JoramSoch | 2022-11-16 |
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| P379 | anova2-pss |[Partition of sums of squares in two-way analysis of variance](/P/anova2-pss)| JoramSoch | 2022-11-16 |
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| P380 | anova2-fols |[F-statistics in terms of ordinary least squares estimates in two-way analysis of variance](/P/anova2-fols)| JoramSoch | 2022-11-16 |
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**Proof:** The [log-likelihood function for binomial data](/P/bin-mle) is given by
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With the [probability mass function of the binomial distribution](/P/bin-pmf), equation \eqref{eq:Bin} implies the following [likelihood function](/D/lf):
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$$ \label{eq:Bin-LL}
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\mathrm{LL}(p) = \log {n \choose y} + y \log p + (n-y) \log (1-p)
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\end{split}
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$$
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Because the null model $m_0$ has no free parameter, its [log model evidence](/D/lme) (logarithmized [marginal likelihood](/D/ml)) is equal to the [log-likelihood function for multinomial observations](/P/mult-mle) at the value $p = [1/k, \ldots, 1/k]$:
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Because the null model $m_0$ has no free parameter, its [log model evidence](/D/lme) (logarithmized [marginal likelihood](/D/ml)) is equal to the [log-likelihood function for multinomial observations](/P/mult-mle) at the value $p_0 = [1/k, \ldots, 1/k]$:
where $\Gamma(x)$ is the gamma function and $\alpha_n$ are the [posterior hyperparameters for multinomial observations](/P/mult-post) which are functions of the [numbers of observations](/D/mult) $y_1, \ldots, y_k$.
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