
Building Retrieval-Augmented Systems with Knowledge Graphs Course
Master the full stack of knowledge graph-powered retrieval-augmented generation — from graph data modeling and query languages to embedding strategies and LLM integration. This course equips AI engineers and data architects with the hands-on skills to build accurate, scalable, and production-ready graph-RAG systems.
What your team will master:
Design and query knowledge graphs using property graph and RDF data models for RAG pipelines.
Extract entities and relations from raw text to populate a structured, retrieval-ready knowledge graph.
Generate and index graph embeddings in vector stores to enable fast, semantically rich hybrid search.
Build end-to-end graph-RAG pipelines that ground language model outputs in verified knowledge graph facts.
Evaluate retrieval quality using precision, recall, MRR, and NDCG metrics to drive iterative improvement.
Operationalize graph-RAG systems with CI/CD pipelines, monitoring dashboards, and continuous improvement workflows.
How your team studies in practice Building Retrieval-Augmented Systems with Knowledge Graphs Course
How your team practices Building Retrieval-Augmented Systems with Knowledge Graphs Course
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Course content
8 Chapters • 39 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Knowledge Graphs and RAG
Foundations of Knowledge Graphs and RAG
Lesson 1 • Knowledge Graph Fundamentals
Covers nodes, edges, triples, and ontologies as building blocks of knowledge graphs. Provides the vocabulary needed for all subsequent graph construction topics.
Lesson 2 • Retrieval-Augmented Generation Overview
Introduces the RAG architecture: retriever, knowledge source, and generator components. Connects retrieval concepts to language model output quality.
Lesson 3 • Data Representation in Graph RAG
Compares RDF, labeled property graphs, and hypergraphs for RAG suitability. Guides students in selecting the right representation for their domain.
Lesson 4 • Why Graphs Enhance Retrieval
Explains structural advantages of graphs over flat document stores for multi-hop reasoning. Motivates the graph-RAG integration covered throughout the course.
Chapter 2HideHide detailsSee detailsGraph Databases and Query Languages
Graph Databases and Query Languages
Lesson 1 • SPARQL for RDF Graphs
Covers SELECT, CONSTRUCT, and ASK queries against RDF triple stores. Equips students to retrieve semantic facts from ontology-backed knowledge graphs.
Lesson 2 • Graph Database Landscape
Surveys native graph databases, multi-model stores, and in-memory graph engines. Helps students match database capabilities to RAG system requirements.
Lesson 3 • Graph Schema Design Patterns
Presents reusable schema patterns such as event graphs, hierarchies, and bipartite graphs. Prepares students to design schemas that support efficient RAG retrieval.
Lesson 4 • Property Graph Query Language
Teaches pattern matching, filtering, and aggregation using a property graph query language. Directly enables fact retrieval queries used in later RAG integration chapters.
Lesson 5 • Indexing and Performance Tuning
Addresses index types, query profiling, and caching strategies for graph databases. Ensures retrieval latency meets real-time RAG system requirements.
Chapter 3HideHide detailsSee detailsKnowledge Graph Construction and Population
Knowledge Graph Construction and Population
Lesson 1 • Ontology Alignment and Enrichment
Covers aligning domain ontologies, importing public knowledge bases, and enriching graph facts. Expands graph coverage to improve retrieval recall in RAG systems.
Lesson 2 • Information Extraction Pipelines
Covers named entity recognition, relation extraction, and coreference resolution from text. These extracted facts become the raw material for graph population.
Lesson 3 • Graph Quality Assurance
Introduces completeness, consistency, and accuracy metrics for knowledge graph validation. Quality gates here prevent retrieval errors in downstream RAG pipelines.
Lesson 4 • Entity Resolution and Deduplication
Addresses record linkage, fuzzy matching, and canonical entity merging across sources. Ensures graph integrity before retrieval queries are executed.
Lesson 5 • Structured Data Ingestion
Teaches mapping relational tables, JSON, and CSV sources to graph triples or property nodes. Enables rapid graph population from existing enterprise data assets.
Chapter 4HideHide detailsSee detailsEmbedding and Vectorizing Graph Knowledge
Embedding and Vectorizing Graph Knowledge
Lesson 1 • Graph Embedding Fundamentals
Explains translational, bilinear, and neural embedding families for knowledge graphs. Provides the theoretical grounding for choosing embeddings in RAG contexts.
Lesson 2 • Text-Graph Joint Embeddings
Teaches co-training text encoders with graph structure to align semantic and relational spaces. Enables unified retrieval across textual and graph knowledge sources.
Lesson 3 • Node and Subgraph Representation
Covers node2vec, GraphSAGE, and subgraph pooling for producing node-level and subgraph-level vectors. These vectors serve as retrieval units in graph-RAG systems.
Lesson 4 • Embedding Maintenance and Updates
Addresses incremental re-embedding, drift detection, and scheduled refresh strategies. Keeps retrieval quality stable as the underlying knowledge graph evolves.
Lesson 5 • Vector Store Integration
Covers indexing graph embeddings in vector databases and configuring approximate nearest-neighbor search. Connects embedding generation to the retrieval layer of RAG.
Chapter 5HideHide detailsSee detailsRetrieval Strategies for Graph-RAG Systems
Retrieval Strategies for Graph-RAG Systems
Lesson 1 • Graph Traversal-Based Retrieval
Covers entity-anchored traversal, beam search over graphs, and path scoring for fact retrieval. Enables structured multi-hop reasoning unavailable in flat retrieval systems.
Lesson 2 • Retrieval Evaluation and Iteration
Introduces precision, recall, MRR, and NDCG for evaluating graph retrieval quality. Guides iterative improvement of retrieval components before generator integration.
Lesson 3 • Query Understanding and Decomposition
Teaches entity linking, relation detection, and multi-hop query decomposition from natural language. Converts user questions into structured graph retrieval operations.
Lesson 4 • Sparse and Dense Retrieval Baselines
Establishes BM25 and dense passage retrieval as baselines before introducing graph-aware methods. Provides benchmarks for measuring graph retrieval improvements.
Lesson 5 • Hybrid Graph-Vector Retrieval
Combines vector similarity search with graph traversal in a unified retrieval pipeline. Balances semantic flexibility with structural precision for complex queries.
Chapter 6HideHide detailsSee detailsIntegrating Language Models with Knowledge Graphs
Integrating Language Models with Knowledge Graphs
Lesson 1 • Agentic Graph-RAG Architectures
Introduces tool-calling agents that iteratively query the knowledge graph during generation. Enables dynamic, multi-step reasoning over graph knowledge at inference time.
Lesson 2 • End-to-End Pipeline Assembly
Guides assembly of ingestion, retrieval, and generation components into a deployable pipeline. Prepares students for the system design and optimization chapters ahead.
Lesson 3 • Hallucination Reduction Techniques
Addresses attribution, fact verification, and confidence scoring to reduce unsupported claims. Ensures generated answers are traceable to specific graph facts.
Lesson 4 • Graph-Conditioned Generation
Teaches conditioning language models on graph-structured inputs using linearization and attention. Improves factual grounding beyond standard prompt-based injection.
Lesson 5 • Prompt Engineering with Graph Context
Covers serializing subgraphs into prompts, context window management, and structured fact injection. Directly controls how graph knowledge influences language model outputs.
Chapter 7HideHide detailsSee detailsSystem Design and Scalability
System Design and Scalability
Lesson 1 • Cost Management and Resource Planning
Covers compute, storage, and API cost modeling for graph-RAG infrastructure. Enables informed trade-off decisions between performance and operational budget.
Lesson 2 • Caching and Latency Optimization
Teaches query result caching, embedding cache layers, and request batching to reduce latency. Directly improves user-facing response times in production RAG systems.
Lesson 3 • Architecture Patterns for Graph-RAG
Presents microservice, monolithic, and event-driven architectures for graph-RAG deployments. Guides selection based on team size, query volume, and update frequency.
Lesson 4 • Scaling Graph Databases
Covers horizontal partitioning, replication, and read replica strategies for large knowledge graphs. Ensures retrieval throughput scales with growing graph size and query load.
Lesson 5 • Reliability and Fault Tolerance
Addresses circuit breakers, graceful degradation, and disaster recovery for graph-RAG systems. Maintains service continuity when graph database or model endpoints fail.
Chapter 8HideHide detailsSee detailsEvaluation, Monitoring, and Continuous Improvement
Evaluation, Monitoring, and Continuous Improvement
Lesson 1 • Continuous Improvement Workflows
Presents regression testing, staged rollouts, and model refresh cadences for sustained quality. Operationalizes improvement as a repeatable engineering process.
Lesson 2 • Feedback Loops and Active Learning
Covers user feedback collection, implicit signal mining, and active learning for graph updates. Closes the loop between production usage and knowledge graph improvement.
Lesson 3 • End-to-End RAG Evaluation Frameworks
Covers faithfulness, answer relevance, context precision, and recall as holistic RAG metrics. Provides a complete evaluation toolkit applicable to graph-RAG pipelines.
Lesson 4 • Retrieval and Generation Observability
Introduces distributed tracing, retrieval logging, and generation audit trails for RAG systems. Enables root-cause analysis of quality regressions in production.
Lesson 5 • Knowledge Graph Quality Monitoring
Teaches ongoing monitoring of graph completeness, staleness, and consistency in production. Detects graph degradation before it impacts retrieval and generation quality.
Your valid completion certificate
This course is for you:
ML engineers ready to move beyond basic RAG implementations.
Data engineers who want to add graph-based retrieval to their toolkit.
Backend developers building knowledge-intensive AI applications at work.
AI researchers exploring structured knowledge sources for grounded generation.
Solutions architects designing enterprise search and question-answering platforms.
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