Discriminant Analysis When the Initial Samples Are Misclassified
By P. Lachenbruch. 1966
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
- Jakramate Bootkrajang
- Richard J. Bolton
- Ata Kabán
- R. Chhikara
- David J. Hand
- J. McKeon
- Tammy Jiang
- J. Gradus
Citations in the corpus
- Learning kernel logistic regression in the presence of class label noise (2014, background): “Part of the reason for this may be that uniform/symmetric label noise is relatively harmless [21,22,12,27].”
- Multi-class classification in the presence of labelling errors (2011, background): “Often, such assumption does not hold, though (see [2, 3, 4, 5] for examples).”
- Statistical fraud detection: A review (2002, background): “Some work has addressed misclassification of training samples (e.g., Lachenbruch, 1966, 1974; Chhikara and McKeon, 1984), but not in the context of fraud detection as far as we are aware.”
- Linear discriminant analysis with misallocation in training samples (1984, methodology): “Assuming that training samples are randomly misallocated, Lachenbruch (1966) and McLachlan (1972) studied R 1 and R2 for their expected values and variances.”
- Discriminant Analysis When the Initial Samples are Misclassified II: Non-Random Misclassification Models (1974, background): “INTR~DUOTI~N Lachenbruch (1966) studied the effects of mis- classification of the initial samples on the performance of the linear discriminant function (LDF).”
- Supervised machine learning: A brief primer (2020, background): “Label noise has been shown to lead to inaccurate predictor selection and rankings (Frénay et al., 2014; Gerlach & Stamey, 2007; Shanab et al., 2012) and to decrease prediction performance (Lachenbruch, 1966; Nettleton et al., 2010; Wilson & Martinez, 2000).”