
Explore how vector databases store high-dimensional data as vectors and perform efficient similarity searches, integrated with large language models to enable recommendations, image search, and natural language processing tasks.
Explore how vector databases store data as high dimensional vectors and enable efficient storage, retrieval, and semantic search with LMS for improved recommendations and insights.
Explore vector databases powered by large language models and compare them with traditional databases. Learn how high dimensional vectors enable semantic search, unstructured data handling, and improved recommendations and clustering.
Explore how vector databases store high-dimensional vectors and enable fast similarity searches integrated with large language models (LLMs) to power semantic search, recommendations, and text generation.
Discover Chroma DB, a lightweight vector database for storing and searching embeddings. Create a collection, generate embeddings with models like sentence transformers, and perform cosine similarity searches with on-disk persistence.
Explore how vector databases store high dimensional embeddings from LLMs using a log-structured merge tree to enable fast similarity searches for text, images, and other data.
Explore how large language models enhance vector databases by capturing semantic relationships and handling unstructured data. Benefit from improved search relevance, self-learning, and scalable data exploration across growing information.
Integrate large language models with vector databases to enable semantic search, contextual responses, and personalized recommendations by creating vector representations of text data for advanced retrieval.
Integrate large language models with vector databases to enhance search accuracy and contextual retrieval. Generate content and personalize user experiences by leveraging semantic understanding and data-driven insights.
Explore how vector databases with LLMs enable semantic search on high-dimensional vectors. See case studies in product catalogs and media that boost recommendations, transcripts, and topic summaries.
Learn to create a vector database with LLMs, encode text into 768-dimensional embeddings, and perform similarity searches, filtering, and data updates using Bert, GPT, and Kudrat.
Explore how vector databases store data as high dimensional vectors and define schemas. Prepare data for insertion and verify results through retrieval and checks.
Discover how vector databases support querying with nearest neighbor, range, and similarity searches plus aggregation, enabling applications like recommendation systems, spatial analysis, and image recognition.
Update records in a vector database by identifying the record with a unique identifier, preparing the updated data, and executing the update operation via the correct API or query language.
Build a lightweight semantic search engine by tokenizing text with NLTK, generating sentence embeddings with all MiniLM-L6-v2, and indexing them in Chroma DB for local, searchable vectors.
Design vector database schemas with large language models to enable efficient similarity searches, natural language queries, and scalable data ingestion for applications like product recommendations.
Explore how vector databases store high dimensional data with embeddings. Learn about graph-like structures, similarity queries, and applications like recommendations and drug discovery.
Explore indexing strategies for vector databases, including LSH, HMS, Annoy, and Enoy, to optimize nearest neighbor searches while balancing accuracy, speed, and memory for large high-dimensional data.
Build a local vector database using chroma db and sentence transformers to create a semantic, searchable knowledge base with embeddings, metadata filtering, and full crud operations.
Explore querying and retrieval in vector databases and their query languages for high dimensional data such as images, videos, and audio. Learn about similarity based searches, vector operations, and indexing.
Master advanced querying techniques in vector databases, including similarity-based searches, vector operations, and k nearest neighbor searches and range queries in high-dimensional spaces.
Explore data retrieval strategies in vector databases, including nearest neighbor search and similarity search for high-dimensional vectors, supported by efficient indexing like hierarchical navigable small world graphs and inverted indices.
Real-time querying in vector databases enables fast similarity searches in large-scale data using hierarchical, navigable, and small-world graphs and approximate nearest neighbor algorithms.
Explore horizontal and vertical scaling in vector databases to optimize performance through sharding, replication, and hardware upgrades for CPU, memory, and storage.
Explore partitioning data for scalability and performance, including sharding, partition keys, shard keys, and dynamic shard management, then enhance speed with caching, load balancing, and indexed queries.
Explore caching mechanisms to boost performance and scalability, including client side, server side, and database caching with in memory stores like Reddis, memcached, and Couchbase, plus CDN and query caching.
Explore load balancing strategies to scale applications and improve performance. Implement round robin, least connections, weighted round robin, content aware, and adaptive balancing with health checks.
Adopt scalable architecture and continuous monitoring to optimize performance and proactively address issues using APM tools, Prometheus, Grafana, Nagios, logging, tracing, alerting, and profiling.
Build a full-stack semantic search web app using Pinecone vector database, Streamlit, and sentence transformers, with text chunking and embeddings upserted for deployment.
Explore authentication and authorization in vector databases to protect data, control access, and maintain security and compliance, with a Milvus-based example of user roles and permissions.
Secure vector databases protect high-dimensional data with encryption, access controls, data masking, and anonymization, while maintaining logs for compliance with GDPR and HIPAA.
Secure vector databases with robust access control and encryption in transit and at rest. Audit, monitor, and align with GDPR, HIPAA, and PCI DSS.
Learn how to secure vector databases by protecting data at rest with encryption and access controls, and safeguard data in transit with TLS, while meeting regulatory compliance.
Develop robust disaster recovery and backup strategies for vector databases, enforcing encryption, access controls, monitoring, and GDPR, HIPAA, and PCI compliance.
Discover how vector databases connect with applications to store and query high-dimensional vector data for recommendations and visual search. Leverage Milvus and Pinecone APIs to build scalable AI systems.
Explore how third-party integrations and APIs connect applications, automate workflows, and access external data to unlock robust ecosystems and enhance decision making.
Learn how data ingestion and ETL enable data integration across internal and external sources, creating a unified view for informed decisions and analysis.
Explore vector database tools and SDKs, including Milvus Python SDK and Pinecone JavaScript SDK. See deployment options like Kubernetes operators and managed services to build end to end solutions.
Ingest data from databases, APIs, or files and store it in vector databases with similarity indexing; integrate with Spark or Athena for analysis and visualize with Tableau or Power BI.
Build a complete vector search workflow with Pinecone and Sentence Transformers: upload text, chunk into segments, embed, upsert, and run semantic search.
This course contains the use of artificial intelligence (AI) tools for content preparation and educational support.
Vector Databases for AI : Semantic Search with ChromaDB
Learn the fundamentals of vector databases, semantic search, ChromaDB, Pinecone, and modern AI retrieval systems
Vector databases are becoming an essential part of modern AI applications, powering semantic search, recommendation systems, intelligent retrieval, and AI-driven search experiences.
This course is designed to help students and developers understand how vector databases work and how they are used in real-world AI applications. The course combines foundational concepts with practical demonstrations using tools such as ChromaDB and Pinecone.
You will learn how vector databases differ from traditional databases, how similarity search works, and how modern AI systems use vector retrieval for intelligent search applications.
The course also covers important engineering topics including:
Vector database architecture
Indexing strategies
Querying and retrieval
Scaling and performance optimization
Security and production considerations
Integration with applications and APIs
Throughout the course, you will work with practical examples and demos to understand how vector search systems are built and managed in modern AI environments.
What You’ll Learn
Fundamentals of vector databases
Semantic search concepts
Vector similarity concepts
ChromaDB basics and operations
Pinecone fundamentals
Querying and retrieval techniques
Indexing and performance optimization
Scaling vector databases
Security and production best practices
Building a semantic search application
Who This Course Is For
Developers
Cloud engineers
Backend engineers
AI enthusiasts
Students exploring AI infrastructure
Anyone interested in semantic search systems
Requirements
Basic programming knowledge
Familiarity with databases is helpful but not required
Interest in AI and modern search systems