Distribuţia Binomială: Modelare Statistică, Optimizare Numerică, cu ...
Distribuţia Binomială: Modelare Statistică, Optimizare Numerică, cu ...
Distribuţia Binomială: Modelare Statistică, Optimizare Numerică, cu ...
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Lorentz JÄNTSCHI (principal investigator) & Sorana D. BOLBOACĂ (co-investigator)<br />
Metode de cal<strong>cu</strong>l a intervalului de încredere pentru proporţii<br />
Grup Nume Metodă Acronim* Referinţe<br />
Aproximaţie Wald<br />
Clasică Wald_N [1],[2], [3], [4]<br />
la<br />
Corecţie la continuitate Wald_C [5]<br />
normalitate Agresti-Coull<br />
Clasică A_C__N [6]<br />
Corecţie la continuitate A_C__C [5]<br />
Corecţie la continuitate A_C__D -**<br />
Wilson<br />
Clasică Wilson_N [7]<br />
Corecţie la continuitate Wilson_C [3]<br />
Aproximaţie ArcSine<br />
Clasică ArcS_N [8]<br />
armonică<br />
Corecţie la continuitate ArcS_C [5]<br />
Corecţie la continuitate ArcS_D [5]<br />
Corecţie la continuitate ArcS_E -<br />
Aproximaţie Logit<br />
Clasică Logit_N [9]<br />
la lognormalitate<br />
Corecţie la continuitate Logit_C [10]<br />
Aproximaţie Bayes (Fisher) Clasică BetaC11 [11]<br />
la Clopper-Pearson Clasică BetaC01 [12], [13]<br />
binomială Jeffreys Clasică BetaCJ0 [14]<br />
BetaC00 Corecţie la continuitate BetaC00 -<br />
BetaC10 Corecţie la continuitate BetaC10 -<br />
BetaCJ1 Corecţie la continuitate BetaCJ1 -<br />
BetaCJ2 Corecţie la continuitate BetaCJ2 -<br />
BetaCJA Corecţie la continuitate BetaCJA -<br />
[1] Wald A. Contributions to the Theory of Statistical Estimation and Testing Hypothesis. The<br />
Annals of Mathematical Statistics 1939;299-326.<br />
[2] Rosner B. Hypothesis Testing: Categorical Data. În: Fundamentals of Biostatistics. Forth<br />
Edition. Duxbury Press. Belmont. 1995, pp. 345-442.<br />
[3] Newcombe RG. Two-sided confidence intervals for the single proportion; comparison of seven<br />
methods. Statistics in Medicine 1998;17:857-872.<br />
[4] Pires MA. Confidence intervals for a binomial proportion: comparison of methods and software<br />
evaluation. [Internet Page] [citat Auguts 2007]. http://www.math.ist.utl.pt/~apires/AP_COMPSTAT02.pdf<br />
[5] Brown DL, Cai TT, DasGupta A. Interval estimasion for a binomial proportion. Statistical<br />
Science 2001;16:101-133.<br />
[6] Agresti A, Coull BA. Approximate is better than 'exact' for interval estimation of binomial<br />
proportions. The American Statistician 1998;52:119-126.<br />
[7] Wilson EB. Probable Inference, the Law of Succession, and Statistical Inference. Journal of the<br />
American Statistical Association 1927;22:209-212.<br />
[8] Anderson JR, Bernstein L, Pike MC. Approximate Confidence Intervals for Probabilities of<br />
Survival and Quantiles in Life-Table Analysis. Biometrics 1982;38(2):407-416.<br />
[9] Woolf B. On estimating the relation between blood group and disease. Annals of Human<br />
Genetics 1955;19:251-253.<br />
[10] Gart JJ. Alternative analyses of contingency tables. Journal of Royal Statistical Society<br />
1966;B28:164-179.<br />
[11] Fisher RA. Statistical Methods for Scientific Inference. Oliver and Boyd, Edinburgh, 1956.<br />
[12] Clopper C, Pearson S. The use of confidence or fiducial limits illustrated in the case of the<br />
binomial. Biometrika 1934;26:404-413.<br />
[13] Agresti A. Dealing with discretness: making ‘exact’ confidence intervals for proportions,<br />
differences of proportions, and odds ratios more exact. Statistical Methods in Medical Research<br />
2003;12:3-21.<br />
[14] Jeffreys H. Theory of Probability (3rd Ed). Clarendon Press, Oxford, 1961.<br />
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