2016 - Member of the National Academy of Engineering For the design and implementation of high-performance distributed and extensible database systems.
1998 - Fellow of the American Statistical Association (ASA)
1996 - Fellow of John Simon Guggenheim Memorial Foundation
His primary scientific interests are in Estimator, Mathematical optimization, Applied mathematics, Statistics and Mixture model. He studies Estimating equations which is a part of Estimator. He works mostly in the field of Mathematical optimization, limiting it down to topics relating to Robustness and, in certain cases, Hellinger distance, Kernel density estimation, Variable kernel density estimation, Multivariate kernel density estimation and Efficient estimator, as a part of the same area of interest.
His Applied mathematics study combines topics from a wide range of disciplines, such as Statistical hypothesis testing, Asymptotic theory and Maximum likelihood sequence estimation. His study in the field of Estimation theory, Exponential family and Multivariate analysis is also linked to topics like All critical points. His Mixture model research includes elements of Stability, Quadratic equation, Approximation algorithm and Maximization.
His scientific interests lie mostly in Statistics, Applied mathematics, Estimator, Mixture model and Expectation–maximization algorithm. His Statistics study which covers Econometrics that intersects with Statistical hypothesis testing, Almost surely and Sample size determination. His Applied mathematics research incorporates themes from Estimation theory, Likelihood function, Maximum likelihood sequence estimation and Quadratic equation.
Bruce G. Lindsay has included themes like Mathematical optimization and Robustness in his Estimator study. His Mixture model study combines topics from a wide range of disciplines, such as Maximum likelihood, Mixture distribution and Algorithm. His Expectation–maximization algorithm research includes elements of Nonparametric statistics, Univariate, Density estimation, Inference and Cluster analysis.
Bruce G. Lindsay focuses on Statistics, Expectation–maximization algorithm, Mixture model, Applied mathematics and Estimator. His study in the fields of Fisher information, Maximum likelihood sequence estimation and Score test under the domain of Statistics overlaps with other disciplines such as Regression problems. His Expectation–maximization algorithm study incorporates themes from Mathematical optimization, Data mining and Cluster analysis.
His research on Mixture model often connects related areas such as Density estimation. The various areas that Bruce G. Lindsay examines in his Applied mathematics study include Space, Distribution, Multivariate statistics and Generalized least squares. His Estimator research includes themes of Nonparametric statistics and Robustness.
Bruce G. Lindsay mostly deals with Applied mathematics, Statistics, Algorithm, Estimator and Likelihood-ratio test. His Applied mathematics research incorporates themes from Likelihood principle, Likelihood function, Maximum likelihood sequence estimation and Expectation–maximization algorithm. His Statistics study frequently intersects with other fields, such as Direct proof.
As part of one scientific family, Bruce G. Lindsay deals mainly with the area of Algorithm, narrowing it down to issues related to the Data mining, and often Sampling distribution, Confidence region and Robust confidence intervals. His biological study spans a wide range of topics, including Machine learning and Robustness, Artificial intelligence. Bruce G. Lindsay has researched Likelihood-ratio test in several fields, including Degrees of freedom, Distribution, Ratio test, Asymptotic distribution and Statistic.
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Mixture models : theory, geometry, and applications
Bruce G. Lindsay.
(1995)
Mixture models : theory, geometry, and applications
Bruce G. Lindsay.
(1995)
The Geometry of Mixture Likelihoods: A General Theory
Bruce G. Lindsay.
Annals of Statistics (1983)
The Geometry of Mixture Likelihoods: A General Theory
Bruce G. Lindsay.
Annals of Statistics (1983)
Widespread genome duplications throughout the history of flowering plants
.
Genome Research (2006)
Widespread genome duplications throughout the history of flowering plants
.
Genome Research (2006)
Efficiency versus robustness : the case for minimum Hellinger distance and related methods
Bruce G. Lindsay.
Annals of Statistics (1994)
Efficiency versus robustness : the case for minimum Hellinger distance and related methods
Bruce G. Lindsay.
Annals of Statistics (1994)
Improving generalised estimating equations using quadratic inference functions
Annie Qu;Bruce G. Lindsay;Bing Li.
Biometrika (2000)
Improving generalised estimating equations using quadratic inference functions
Annie Qu;Bruce G. Lindsay;Bing Li.
Biometrika (2000)
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