Mixed Poisson Distribution With An Inverse Gaussian
The content provided is a mathematical derivation showing that a mixed Poisson distribution with an inverse Gaussian mixing distribution is equivalent to a Poisson-ETNB distribution.
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The content provided is a mathematical derivation showing that a mixed Poisson distribution with an inverse Gaussian mixing distribution is equivalent to a Poisson-ETNB distribution.
The given text consists of two parts. The first part contains two examples along with their proofs concerning inequalities. In the first example, it is proved that if 'a_i' are real numbers such that the sum of their squares, the summation of (a_i^2), is less than or equal to 4, then the sum of their cubes, the summation of (a_i^3), will be less than or equal to 8. The proof involves utilizing the AM-GM inequality to demonstrate that the sum of the cubes is bounded by 8. In the second example, an inequality is proved for non-negative numbers 'a', 'b', and 'c': a^3 + b^3 + c^3 - 3abc is greater than or equal to 2((b+c)/2 - a)^3.
We will get into how to get different moments of different distributions and possible skewness and kurtosis of different distributions. We will also discuss the relationship between different moments and the moment generating function.
The provided text discusses the concept of compound distributions, which arise when combining two independent distributions. The probability generating function (pgf) of a compound distribution is shown to be the composition of the pgfs of the primary and secondary distributions. Some of the examples are excerpted from Loss Model (Sixth Edition).
In this blog, We introduces various methods in point estimates and their definition. The blog follows from lecture note Point Estimate from professor Xiaojing Ye in Georgia State University
The text primarily covers actuarial formulas and concepts related to life insurance and financial mathematics, providing insights into the calculation of present values and probabilities for different scenarios. keywords: Makeham's Law, Interest and Discount Formulas, Actuarial Present Value, Variance of Payments, Whole Life Annuity, Deferred Insurance, Relations among Different Present Values, Decomposition of Term Insurance
The text also mentions exercises based on actuarial mathematics for life contingent risks, which involve calculating EPVs and variance of benefits. Keywords: indicator variable, EPV Formulas, term insurance and whole life insurance, geometric payout.
In this blog, We introduces various discrete distributions and discusses their properties, particularly focusing on the counting distribution, Poisson distribution, negative binomial distribution, and binomial distribution. Counting Distribution, Poisson Distribution, Negative Binomial Distribution, Memoryless Property, Binomial Distribution, The (a,b,0)-Class
Statistics and Sample Properties, Sampling Distribution of the Mean, Chebyshev's Inequality, Weak Law of Large Numbers (WLLN), Central Limit Theorem (CLT), Sample Distribution with Finite Population and Without Replacement.
Chi-squared Distribution, Student's t-distribution, Fisher's F-distribution, Order Statistics.
Examples include finding the probability density functions of transformed random variables, absolute values, sums of independent variables, and squared variables, as well as obtaining the cumulative distribution function, applying the moment generating function theorem, and determining the distributions of sums of Poisson and exponential random variables.