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Maximum Likelihood Estimation

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Maximum likelihood estimation (MLE) is a statistical method used to estimate the parameters of a probability distribution by maximizing the likelihood function. The likelihood function measures the compatibility of the observed data with different possible values of the parameters. By finding the values of the parameters that maximize the likelihood function, we can obtain the most plausible explanation for the observed data.

Theory of Maximum Likelihood Estimation

The theory of MLE is based on the assumption that the observed data is a sample from a population that follows a known probability distribution. The parameters of the distribution are unknown, and the goal of MLE is to estimate these parameters from the observed data.

Likelihood Function

The likelihood function is a function of the parameters of the distribution that measures the probability of observing the data given those parameters. By maximizing the likelihood function, we can find the values of the parameters that make the observed data most likely.

MLE Estimator

The MLE estimator is the value of the parameters that maximizes the likelihood function. This estimator is consistent, meaning that it converges to the true value of the parameters as the sample size increases.

Applications of Maximum Likelihood Estimation

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Maximum likelihood estimation (MLE) is a statistical method used to estimate the parameters of a probability distribution by maximizing the likelihood function. The likelihood function measures the compatibility of the observed data with different possible values of the parameters. By finding the values of the parameters that maximize the likelihood function, we can obtain the most plausible explanation for the observed data.

Theory of Maximum Likelihood Estimation

The theory of MLE is based on the assumption that the observed data is a sample from a population that follows a known probability distribution. The parameters of the distribution are unknown, and the goal of MLE is to estimate these parameters from the observed data.

Likelihood Function

The likelihood function is a function of the parameters of the distribution that measures the probability of observing the data given those parameters. By maximizing the likelihood function, we can find the values of the parameters that make the observed data most likely.

MLE Estimator

The MLE estimator is the value of the parameters that maximizes the likelihood function. This estimator is consistent, meaning that it converges to the true value of the parameters as the sample size increases.

Applications of Maximum Likelihood Estimation

MLE is a widely used method for parameter estimation in various fields, including:

  • Statistics: Estimating population parameters, such as the mean and variance.
  • Econometrics: Estimating economic models, such as regression models.
  • Machine learning: Estimating the parameters of machine learning models, such as support vector machines and neural networks.
  • Bioinformatics: Estimating the parameters of biological models, such as gene expression models.

Benefits of Maximum Likelihood Estimation

MLE offers several benefits as a parameter estimation method:

  • Consistency: MLE estimators are consistent, meaning they converge to the true value of the parameters as the sample size increases.
  • Efficiency: MLE estimators are efficient, meaning they have the lowest variance among all unbiased estimators of the parameters.
  • Simplicity: MLE is a relatively simple and straightforward method to implement.

Limitations of Maximum Likelihood Estimation

MLE also has some limitations, such as:

  • Can be biased: MLE estimators can be biased in small samples.
  • May not exist: The MLE estimator may not exist for some distributions.
  • Computationally intensive: MLE can be computationally intensive for large datasets.

Learning Maximum Likelihood Estimation

Online courses provide a convenient and flexible way to learn about maximum likelihood estimation. These courses offer a structured learning experience with video lectures, assignments, and quizzes. By completing these courses, learners can gain the theoretical understanding and practical skills necessary to apply MLE in their own research or work.

Online courses can provide learners with the following benefits:

  • Flexibility: Learners can access the courses at their own pace and on their own time.
  • Affordability: Many online courses are available for free or at a low cost.
  • Variety: There are many different online courses available, so learners can find one that fits their learning style and interests.

While online courses can be a valuable resource for learning about MLE, it's important to note that they may not be sufficient for a comprehensive understanding of the topic. Hands-on experience with real-world data is also necessary to develop proficiency in MLE.

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Reading list

We've selected 11 books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Maximum Likelihood Estimation.
This advanced textbook covers machine learning algorithms and theory from a probabilistic perspective. It includes a comprehensive discussion of MLE and its applications in machine learning.
This advanced monograph provides a detailed and rigorous treatment of MLE, including its theoretical properties and applications. It is written for researchers and advanced students with a strong background in statistics.
This advanced textbook provides a rigorous and in-depth treatment of likelihood and Bayesian inference, including a detailed discussion of MLE.
This widely-used textbook provides a practical introduction to statistical learning methods, including MLE. It is written in a clear and accessible style, making it suitable for beginners and experienced practitioners alike.
This classic textbook provides a rigorous and in-depth treatment of statistical models, including a detailed discussion of MLE and its properties.
This textbook provides a comprehensive overview of machine learning algorithms, including a detailed discussion of MLE and its applications in machine learning.
This textbook provides a comprehensive overview of computational methods used in statistics, including MLE. It covers a wide range of topics, from basic statistical concepts to advanced computational techniques.
This comprehensive textbook provides a thorough introduction to Bayesian data analysis, including a detailed discussion of MLE and its relationship to Bayesian inference.
This textbook provides a comprehensive overview of modern statistical methods, including a detailed discussion of MLE and its applications. It is written in a clear and concise style, making it accessible to a wide audience.
This introductory textbook provides a clear and concise overview of modern statistical methods, including MLE. It is suitable for students with a basic understanding of probability and statistics.
This introductory textbook provides a clear and concise overview of likelihood-based statistical methods, including MLE. It is written in a non-technical style, making it accessible to a wide audience.
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