Density Estimation and Bump-Hunting by the Penalized Likelihood Method Exemplified by Scattering and Meteorite Data
惩罚似然密度估计与峰值识别:散射及陨石数据示例AI 解读 ↓
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惩罚似然密度估计与峰值识别:散射及陨石数据示例AI 解读 ↓
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The (maximum) penalized-likelihood method of probability density estimation and bump-hunting is improved and exemplified by applications to scattering and chondrite data. We show how the hyperparameter in the method can be satisfactorily estimated by using statistics of goodness of fit. A Fourier expansion is found to be usually more expeditious than a Hermite expansion but a compromise is useful. The best fit to the scattering data has 13 bumps, all of which are evaluated by the Bayesian interpretation of the method. Eight bumps are well supported. The result for the chondrite data suggests that it is trimodal and confirms that there are (at least) three kinds of chondrite.