SVD Image Compression & PCA Deep Dive
Explore the mechanics of Singular Value Decomposition (SVD) and its application in Principal Component Analysis (PCA).
Explore the mechanics of Singular Value Decomposition (SVD) and its application in Principal Component Analysis (PCA). Features interactive image compression simulations and a comparison of PCA methods like Incremental, Randomized, and Kernel PCA.
Feature Lists
- Interactive SVD Rank Adjustment
- Step-by-step Mathematical Derivation of PCA
- Comparison of 5 PCA methods (Incremental, Kernel, etc.)
- Real-world Telecom Churn Data Simulation
- Low-Rank Approximation Visualizations
Enter an image URL, then adjust the Rank (number of singular values) to see how image quality changes. Lower ranks mean more compression but less detail.
Input Vector X before SVD
U S V^T components
Data Retained: 0%
% of Compression of the SVD components to the full vector
Mean Abs. Diff: 0
Reconstruction Error - how well SVD components approximate original
Architected by Kuriko Iwai

Continue Your Learning
If you enjoyed this blog, these related entries will complete the picture:
Dimensionality Reduction Unveiled: LLM Fine-tuning and Mechanics of SVD and PCA
Related Books for Further Understanding
These books cover the wide range of theories and practices; from fundamentals to PhD level.

Linear Algebra Done Right

Foundations of Machine Learning, second edition (Adaptive Computation and Machine Learning series)

Designing Machine Learning Systems: An Iterative Process for Production-Ready Applications

Machine Learning Design Patterns: Solutions to Common Challenges in Data Preparation, Model Building, and MLOps
Share What You Learned
Kuriko IWAI, "SVD Image Compression & PCA Deep Dive" in ML Labs
https://kuriko-iwai.com/labs/svd-image-compression-and-pca
Looking for Solutions?
- Deploying ML Systems 👉 Book a briefing session
- Hiring an ML Engineer 👉 Drop an email
- Learn by Doing 👉 Enroll AI Engineering Masterclass
Written by Kuriko IWAI. All images, unless otherwise noted, are by the author. All experimentations on this blog utilize synthetic or licensed data.
