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1.2 A guided tour of decision theory. |
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2.1 The “Dutch Book” theorem. |
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2.3 Scoring rules and the axioms of probabilities. |
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3.1 St. Petersburg paradox. |
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3.2 Expected utility theory and the theory of means. |
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3.3 The expected utility principle. |
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3.4 The von Neumann–Morgenstern representation theorem. |
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4.1 The “standard gamble”. |
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4.3 Utility functions for medical decisions. |
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6.2 State-dependent utilities. |
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6.3 State-independent utilities. |
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6.4 Anscombe–Aumann representation theorem. |
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Part Two Statistical Decision Theory. |
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7.2 Data-based decisions. |
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7.3 The travel insurance example. |
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7.4 Randomized decision rules. |
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7.5 Classification and hypothesis tests. |
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7.7 Minimax–Bayes connections. |
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8.1 Admissibility and completeness. |
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8.2 Admissibility and minimax. |
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8.3 Admissibility and Bayes. |
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8.5 Using the same α level across studies with different sample sizes is inadmissible. |
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9.2 Geometric and empirical Bayes heuristics. |
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9.3 General shrinkage functions. |
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9.4 Shrinkage with different likelihood and losses. |
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10.1 Betting and forecasting. |
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10.3 Local scoring rules. |
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10.4 Calibration and refinement. |
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11.1 The “true model” perspective. |
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Part Three Optimal Design. |
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12.2 The travel insurance example revisited. |
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12.3 Dynamic programming. |
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12.4 Trading off immediate gains and information. |
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12.5 Sequential clinical trials. |
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12.6 Variable selection in multiple regression. |
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13 Changes in utility as information. |
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13.1 Measuring the value of information. |
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13.3 Lindley information. |
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13.4 Minimax and the value of information. |
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14.1 Decision-theoretic approaches to sample size. |
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15.2 A motivating example. |
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15.3 Bayesian optimal stopping. |
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15.5 Sequential sampling to reduce uncertainty. |
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15.6 The stopping rule principle. |
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A.3 Probability (density) functions of some distributions. |
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