@@ -167,7 +167,7 @@ Therefore, the aim is here to give an estimate of the FR at any given AR for any
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@@ -167,7 +167,7 @@ Therefore, the aim is here to give an estimate of the FR at any given AR for any
%The "eventual goal" is to create such an evaluator module that it can outperform (have a lower failure on all levels of acceptance rate) the deciders in the data generating process. The problem is of course comparing the performance of the deciders. We try to address that.
%The "eventual goal" is to create such an evaluator module that it can outperform (have a lower failure on all levels of acceptance rate) the deciders in the data generating process. The problem is of course comparing the performance of the deciders. We try to address that.
@@ -199,7 +199,7 @@ The outcome $Y$ is affected by the observed background factors $X$, unobserved
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@@ -199,7 +199,7 @@ The outcome $Y$ is affected by the observed background factors $X$, unobserved
We use a propensity score framework to model $X$ and $Z$: they are assumed continuous Gaussian variables, with the interpretation that they represent summarized risk factors such that higher values denote higher risk for a negative outcome ($Y=0$). Hence the Gaussianity assumption here is motivated by the central limit theorem.
We use a propensity score framework to model $X$ and $Z$: they are assumed continuous Gaussian variables, with the interpretation that they represent summarized risk factors such that higher values denote higher risk for a negative outcome ($Y=0$). Hence the Gaussianity assumption here is motivated by the central limit theorem.