Modeling and Evaluating Insurance Losses Via Mixtures of Erlang Distributions
By Simon C. K. Lee Asa, Asa X. Sheldon Lin. 2010
145 citations recorded by the source corpus.
Subfields: Management Science and Operations Research, Statistics and Probability
View Paper: https://www.semanticscholar.org/paper/6eb0a8c4b1fb0e66dd409fd86b6fc74c279416a7
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Management Science and Operations Research
- Hélène Cossette
- É. Marceau
- Roel Verbelen
- Bettina Grün
- Sheldon Lin
- Lan Gong
- Tatjana Miljkovic
- Katrien Antonio
In Statistics and Probability
- Tatjana Miljkovic
- Roel Verbelen
- Bettina Grün
- Sheldon Lin
- Lan Gong
- Hélène Cossette
- Katrien Antonio
- Andrei L. Badescu
Citations in the corpus
- Multivariate distribution defined with Farlie–Gumbel–Morgenstern copula and mixed Erlang marginals: Aggregation and capital allocation (2013, unknown): “Lee and Lin (2010) suggest the use of mixed Erlang distributions to model insurance losses.”
- Modeling loss data using mixtures of distributions (2016, methodology): “Lee and Lin (2010) showed that Log-normal, Gamma, and GeneralizedPareto densities can be suitably approximated with these Erlang mixtures, and they also demonstrated their proposed approach on catastrophic loss data from the United States.”
- TVaR-based capital allocation for multivariate compound distributions with positive continuous claim amounts (2012, methodology): “Willmot and Woo (2007), Lee and Lin (2010), and Willmot and Lin (2011) show the usefulness of this distribution. With several examples, these authors illustrate the versatility of this distribution to model claim amounts and the feasibility to obtain closedform expressions for various quantities of ”
- FITTING MIXTURES OF ERLANGS TO CENSORED AND TRUNCATED DATA USING THE EM ALGORITHM (2015, methodology): “Extending Lee and Lin (2010) 2, we introduce a 2We acknowledge the help of Simon Lee who suggested this approach in personal communication. spread factor s by which we multiply the shapes in order to get a wider spread at the initial step, i.e. rj = sj for j = 1, 2, . . . ,M .”