Chapter 1: Statistical Paradigms and Core Concepts
This chapter establishes the foundation for computational data science by covering three essential topics:
Probability foundations and inference paradigms (Section 1.1): Kolmogorov’s axioms and philosophical interpretations of probability; comparison of frequentist, Bayesian, and likelihood-based inference approaches
Probability distributions (Section 1.2): Comprehensive review of discrete and continuous distributions, their properties, relationships, and applications; detailed treatment of PMFs, PDFs, and CDFs
Python random generation (Section 1.3): Practical implementation of probability concepts using Python’s ecosystem (random, NumPy, SciPy)
Learning Objectives: Upon completion of this chapter, students will be able to:
Understand Kolmogorov’s axiomatic foundation of probability
Explore different interpretations of what probability means (frequentist, Bayesian, propensity)
Compare major statistical inference paradigms (Frequentist, Bayesian, Likelihoodist)
Recognize philosophical debates and practical trade-offs between approaches
Work fluently with random variables, PMFs, PDFs, and CDFs
Understand key properties and applications of major probability distributions
Generate random samples from various distributions using Python
Compute probabilities, quantiles, and other distribution properties
Choose appropriate Python library and distribution for specific problems
Sections
- Paradigms of Probability and Statistical Inference
- Probability Distributions: Theory and Computation
- From Abstract Foundations to Concrete Tools
- The Python Ecosystem for Probability
- Introduction: Why Probability Distributions Matter
- The Python Ecosystem for Probability
- Discrete Distributions
- Continuous Distributions
- Additional Important Distributions
- Summary and Practical Guidelines
- Conclusion
- References and Further Reading
- Python Random Generation
- From Mathematical Distributions to Computational Samples
- The Python Ecosystem at a Glance
- Understanding Pseudo-Random Number Generation
- The Standard Library:
randomModule - NumPy: Fast Vectorized Random Sampling
- SciPy Stats: The Complete Statistical Toolkit
- Bringing It All Together: Library Selection Guide
- Looking Ahead: From Random Numbers to Monte Carlo Methods
- References and Further Reading
- Chapter 1 Summary: Foundations in Place