Imagine you have a large collection of items and want to organize them into **meaningful groups**. For example, think about books in a library. Libraries organize books into **categories** like fiction, science, history, and more. This makes it easier to find the books you're interested in — and that's what **clustering** is all about.

In essence, clustering is about: 

 

- **Grouping similar data points together:** data points within the same cluster are more similar to each other than to those in other clusters; 

- **Uncovering hidden structures:** clustering can reveal underlying patterns and organization in data that might not be immediately obvious; 

- **Making sense of complex data:** by grouping data, clustering simplifies large datasets and helps us understand them better. 

Clustering is used in many different fields and for a wide variety of purposes.

Clustering ist eine der grundlegenden Techniken des maschinellen Lernens, die es Ihnen ermöglicht, viele komplexe Probleme im realen Leben zu lösen: Marktsegmentierung, Anomalieerkennung, Dimensionsreduktion, Aufdecken versteckter Muster usw.

Dive into the fundamentals of clustering and discover how it differs from classification. Explore essential algorithms, tools, and libraries that power this unsupervised learning technique to uncover hidden patterns in data.

Gain a solid understanding of key preprocessing techniques that ensure effective clustering. Learn how to handle missing values, encode categorical features, normalize data, and choose appropriate distance measures and linkages to boost clustering accuracy.

Master the skills needed to apply K-Means clustering effectively. Learn how the algorithm works, determine the optimal number of clusters, and gain hands-on experience by implementing K-Means on both synthetic and real-world datasets.

Explore the essentials of hierarchical clustering and learn how to group data into meaningful clusters using dendrograms. Build confidence in identifying the optimal number of clusters and implementing the technique on both synthetic and real-world datasets.

Discover how DBSCAN excels at detecting clusters of varying shapes and handling noise in data. Learn the mechanics behind this density-based algorithm, how to assign points to clusters, and apply it to both synthetic and real datasets with confidence.

Gain a solid understanding of Gaussian Mixture Models and how they use probability to model complex cluster shapes. Learn the principles of Gaussian distribution, explore how GMMs work, and build confidence by applying them to both dummy and real-world data.

Clusteranalyse

Introduction to Clustering