Showing 72 of total 72 results (show query)

yonicd

ggedit:Interactive 'ggplot2' Layer and Theme Aesthetic Editor

Interactively edit 'ggplot2' layer and theme aesthetics definitions.

Maintained by Jonathan Sidi. Last updated 11 months ago.

ggplot2shiny

250 stars 7.95 score 116 scripts 3 dependents

projectmosaic

mosaicCore:Common Utilities for Other MOSAIC-Family Packages

Common utilities used in other MOSAIC-family packages are collected here.

Maintained by Randall Pruim. Last updated 1 years ago.

1 stars 7.07 score 113 scripts 26 dependents

staffanbetner

rethinking:Statistical Rethinking book package

Utilities for fitting and comparing models

Maintained by Richard McElreath. Last updated 4 months ago.

5.42 score 4.4k scripts

mrc-ide

gonovax:Deterministic Compartmental Model of Gonorrhoea with Vaccination

Model for gonorrhoea vaccination, using odin.

Maintained by Lilith Whittles. Last updated 16 days ago.

3 stars 4.56 score

eutwt

versus:Compare Data Frames

A toolset for interactively exploring the differences between two data frames.

Maintained by Ryan Dickerson. Last updated 9 months ago.

7 stars 4.02 score 4 scripts

yangfengstat

nproc:Neyman-Pearson (NP) Classification Algorithms and NP Receiver Operating Characteristic (NP-ROC) Curves

In many binary classification applications, such as disease diagnosis and spam detection, practitioners commonly face the need to limit type I error (i.e., the conditional probability of misclassifying a class 0 observation as class 1) so that it remains below a desired threshold. To address this need, the Neyman-Pearson (NP) classification paradigm is a natural choice; it minimizes type II error (i.e., the conditional probability of misclassifying a class 1 observation as class 0) while enforcing an upper bound, alpha, on the type I error. Although the NP paradigm has a century-long history in hypothesis testing, it has not been well recognized and implemented in classification schemes. Common practices that directly limit the empirical type I error to no more than alpha do not satisfy the type I error control objective because the resulting classifiers are still likely to have type I errors much larger than alpha. As a result, the NP paradigm has not been properly implemented for many classification scenarios in practice. In this work, we develop the first umbrella algorithm that implements the NP paradigm for all scoring-type classification methods, including popular methods such as logistic regression, support vector machines and random forests. Powered by this umbrella algorithm, we propose a novel graphical tool for NP classification methods: NP receiver operating characteristic (NP-ROC) bands, motivated by the popular receiver operating characteristic (ROC) curves. NP-ROC bands will help choose in a data adaptive way and compare different NP classifiers.

Maintained by Yang Feng. Last updated 5 years ago.

2.23 score 17 scripts