
Review the idea of classification in supervised learning and how Naive Bayes fits as a classifier. Learn data as geometry with inputs X and targets Y in a matrix form.
Explore supervised classification, visualize separation of colored data, and compare Naive Bayes variants Gaussian, Bernoulli, and Multinomial under independence assumptions.
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Explore a strategic approach to Python Naive Bayes projects by emphasizing exploratory data analysis, misclassified samples, confusion matrix, F1 score, AUC, feature selection, and tuning.
Flatten 28×28 grayscale images into 784-feature vectors to train a naive Bayes model on MNIST digits, and compare Gaussian versus Bernoulli approaches with 0-1 scaling.
Learn how to apply Naive Bayes to text by converting documents into bag-of-words vectors, using tokenization, counting word occurrences, and building a vocab-based input matrix for classification.
Implement Gaussian naive Bayes in Python by building a fit and predict workflow with priors, means, variances, and smoothing, then test accuracy on a dataset after normalizing inputs.
Explore Bernoulli naive Bayes theory, deriving priors from class proportions, formulating the Bernoulli likelihood with log, and producing a linear classifier by w_k^T x + b_k for arg max predictions.
Explore multinomial naive Bayes, deriving P(X|Y) with a multinomial distribution on count features and using log likelihood plus prior to classify via arg max of w_k^T x + b_k.
Clarify the appendix and FAQ, showing they are optional, supplementary material with frequently asked questions and a Q&A mechanism.
Learn to install data science and machine learning libraries on Windows with Anaconda, including NumPy, SciPy, Matplotlib, Pandas, TensorFlow, Keras, PyTorch, CNTK, and Open Air Gym.
Learn proven strategies to succeed in this challenging data science course by leveraging the Q&A forum, meeting prerequisites, and implementing theory in code to solidify understanding.
In this self-paced course, you will learn how to apply Naive Bayes to many real-world datasets in a wide variety of areas, such as:
computer vision
natural language processing
financial analysis
healthcare
genomics
Why should you take this course? Naive Bayes is one of the fundamental algorithms in machine learning, data science, and artificial intelligence. No practitioner is complete without mastering it.
This course is designed to be appropriate for all levels of students, whether you are beginner, intermediate, or advanced. You'll learn both the intuition for how Naive Bayes works and how to apply it effectively while accounting for the unique characteristics of the Naive Bayes algorithm. You'll learn about when and why to use the different versions of Naive Bayes included in Scikit-Learn, including GaussianNB, BernoulliNB, and MultinomialNB.
In the advanced section of the course, you will learn about how Naive Bayes really works under the hood. You will also learn how to implement several variants of Naive Bayes from scratch, including Gaussian Naive Bayes, Bernoulli Naive Bayes, and Multinomial Naive Bayes. The advanced section will require knowledge of probability, so be prepared!
Thank you for reading and I hope to see you soon!
Suggested Prerequisites:
Decent Python programming skill
Comfortable with data science libraries like Numpy and Matplotlib
For the advanced section, probability knowledge is required
WHAT ORDER SHOULD I TAKE YOUR COURSES IN?
Check out the lecture "Machine Learning and AI Prerequisite Roadmap" (available in the FAQ of any of my courses, including my free course)
UNIQUE FEATURES
Every line of code explained in detail - email me any time if you disagree
Less than 24 hour response time on Q&A on average
Not afraid of university-level math - get important details about algorithms that other courses leave out