101.school
CoursesAbout
Search...⌘K
Generate a course with AI...

    Introduction to Bayesian reasoning

    Receive aemail containing the next unit.
    • Introduction to Bayesian Reasoning
      • 1.1What is Bayesian Reasoning
      • 1.2Importance and Applications of Bayesian Reasoning in Decision Making
      • 1.3Fundamentals of Probability in Bayesian Reasoning
    • Historical Perspective of Bayesian Reasoning
      • 2.1Single Event Probabilities
      • 2.2From Classical to Bayesian Statistics
      • 2.3Bayes' Theorem – The Math Behind It
    • Understanding Priors
      • 3.1Importance of Priors
      • 3.2Setting your Own Priors
      • 3.3Pitfalls in Selection of Priors
    • Implementing Priors
      • 4.1Revision of Beliefs
      • 4.2Bayesian vs Frequentist Statistics
      • 4.3Introduction to Bayesian Inference
    • Advanced Bayesian Inference
      • 5.1Learning from Data
      • 5.2Hypothesis Testing and Model Selection
      • 5.3Prediction and Decision Making
    • Bayesian Networks
      • 6.1Basic Structure
      • 6.2Applications in Decision Making
      • 6.3Real-life examples of Bayesian Networks
    • Bayesian Data Analysis
      • 7.1Statistical Modelling
      • 7.2Predictive Inference
      • 7.3Bayesian Hierarchical Modelling
    • Introduction to Bayesian Software
      • 8.1Using R for Bayesian statistics
      • 8.2Bayesian statistical modelling using Python
      • 8.3Software Demonstration
    • Handling Complex Bayesian Models
      • 9.1Monte Carlo Simulations
      • 9.2Markov Chain Monte Carlo Methods
      • 9.3Sampling Methods and Convergence Diagnostics
    • Bayesian Perspective on Learning
      • 10.1Machine Learning with Bayesian Methods
      • 10.2Bayesian Deep Learning
      • 10.3Applying Bayesian Reasoning in AI
    • Case Study: Bayesian Methods in Finance
      • 11.1Risk Assessment
      • 11.2Market Prediction
      • 11.3Investment Decision Making
    • Case Study: Bayesian Methods in Healthcare
      • 12.1Clinical Trial Analysis
      • 12.2Making Treatment Decisions
      • 12.3Epidemic Modelling
    • Wrap Up & Real World Bayesian Applications
      • 13.1Review of Key Bayesian Concepts
      • 13.2Emerging Trends in Bayesian Reasoning
      • 13.3Bayesian Reasoning for Future Decision Making

    Advanced Bayesian Inference

    Learning from Data with Bayesian Inference

    theoretical framework for machine learning

    Theoretical framework for machine learning.

    In the realm of statistics and data analysis, learning from data is a fundamental concept. It refers to the process of extracting knowledge or insights from raw data. Bayesian inference plays a crucial role in this process.

    Understanding the Concept of Learning from Data

    Learning from data is the process of using statistical methods to understand and interpret data. This process often involves identifying patterns, relationships, or trends in the data that can help in making informed decisions or predictions.

    The Role of Bayesian Inference in Learning from Data

    Bayesian inference is a method of statistical inference that is based on Bayes' theorem. It provides a way to update the probability for a hypothesis as more evidence or information becomes available.

    In the context of learning from data, Bayesian inference allows us to update our beliefs about the data as we collect more of it. For example, if we are trying to determine the average height of people in a certain population, we can start with a prior belief (based on previous studies or general knowledge), collect data (measure the heights of a sample of people from the population), and then use Bayesian inference to update our belief about the average height based on the data we collected.

    Practical Examples of Learning from Data Using Bayesian Inference

    Let's consider a simple example. Suppose you are a product manager at a tech company and you want to know if a new feature you launched is liked by users. You start with a prior belief (before the feature launch, you conducted user interviews and most of them were positive about the feature). After the feature launch, you start collecting data (user feedback, usage metrics, etc.).

    You can use Bayesian inference to update your belief about the feature's popularity based on the data you collected. If the data shows that users are using the feature frequently and giving positive feedback, you can update your belief to be more confident that the feature is liked by users. On the other hand, if the data shows that users are not using the feature much and giving negative feedback, you can update your belief to be less confident that the feature is liked by users.

    In conclusion, Bayesian inference provides a powerful and flexible framework for learning from data. It allows us to incorporate prior knowledge and update our beliefs as we collect more data, making it a valuable tool for data analysis and decision making.

    Test me
    Practical exercise
    Further reading

    Good morning my good sir, any questions for me?

    Sign in to chat
    Next up: Hypothesis Testing and Model Selection