The Buried Assumption in Constant Dispersion Tweedie Models
The buried assumption in constant dispersion tweedie models
more ...The buried assumption in constant dispersion tweedie models
more ...Gibbs sampling approaches for Bayesian linear regression
more ...Using Dijkstra's Algorithm to Find All Shortest Paths in a Graph
more ...Smoothing data with cubic spline approaches
more ...A matrix factorization approach to linear regression
more ...Generating correlated boostrap reserve estimates with R
more ...Applications of inverse transform sampling
more ...Polynomial interpolation via Newton's method
more ...Sampling from mixed exponential distributions using the inverse transform method
more ...Estimating Logistic Regression Coefficents From Scratch in Python
more ...Assessing goodness-of-fit in Python with Scipy
more ...Kernel Density Estimation in Python
more ...Correcting the bias in estimators of population variance
more ...Derivation of the Normal Equations via Least Squares and Maximum Likelihood
more ...Assessing the quality of fit for logistic regression models
more ...Updating sample mean and variance to account for new observations without full recalculation
more ...Derivation of the Poisson Distribution as a Limiting Case of the Binomial PDF
more ...Smoothed Empirical Percentile Matching with Python implementation
more ...Polynomial interpolation via Newton's divided differences
more ...Creating runoff triangles in R
more ...Using the Freedman-Diaconis Rule to determine optimal histogram bin width
more ...Finding logLikelihood estimates using optim in R
more ...Finding roots of equations in R with uniroot
more ...Fitting Logistic regression models with Iterative Reweighted Least Squares in R
more ...An Investigation of the complete and incomplete Beta Functions with use cases
more ...