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Statistics |
Journal volumes: 17
Journal issues: 34
Articles views: 703517
Articles downloads: 365151
Total authors: 581
Unique authors: 422
Repeated authors: 159
Repeated authors percent: 27
Submitted articles: 369
Accepted articles: 266
Rejected articles: 25
Published articles: 219
Acceptance rate: 72.09
Rejection rate: 6.78
Average Time to Accept: 282 days
Average Time to First Review: 27.2 days
Average Time to Publish: 26.1 days
Last 3 years statistics:
Submitted articles: 36
Accepted articles: 23
Rejected articles: 2
Published articles: 10
Acceptance rate: 63.89
Rejection rate: 5.56
Average Time to Accept: 145 days
Average Time to First Review: 6.9 days
Average Time to Publish: 154 days
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Showing 3 results for Quantile Function
Haitham M. Yousof, Mahbubul Majumder, S. M. A. Jahanshahi, M. Masoom Ali, G. G. Hamedani, Volume 15, Issue 1 (9-2018)
Abstract
We propose a new class of continuous models called the Weibull Generalized G family with two extra positive shape parameters, which extends several well-known models. We obtain some of its mathematical properties including ordinary and incomplete moments, generating function, order statistics, probability weighted moments, entropies, residual, and reversed residual life functions. Characterizations based on a ratio of two truncated moments, in terms of hazard function and based on certain functions of the random variable are presented. We estimate the model parameters by the maximum likelihood method. We assess the performance of the maximum likelihood estimators in terms of biases and mean squared errors by means of two simulation studies. The usefulness of the proposed models is illustrated via three real data sets.
Mohammad Khorashadizadeh, Volume 15, Issue 2 (3-2019)
Abstract
In this paper, we introduce and study quantile version of the Shannon entropy function via doubly truncated (interval) lifetime, which includes the residual and past lifetimes as special case. We aim to study the use of proposed measure in characterization of distribution functions. Further, we describe a stochastic order and a weighted distribution based on this entropy and show their properties. Finally, some results have been obtained for some distributions such as Uniform, Exponential, Pareto I, Power function and Govindarajulu. Also by analysing a real data the subject has been illustrated.
Zohreh Pakdaman , Majid Hashempour, Volume 16, Issue 1 (9-2019)
Abstract
This paper deals with the dynamic survival past extropy as a measure of uncertainty in the past lifetime distributions. We introduce a quantile version of the extropy function in past lifetime. Various properties of the proposed measure are obtained. Additionally, some stochastic comparisons and bounds are derived and the performance of the dynamic survival past extropy of parallel and series system is studied as well.
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