Databricks Context Engineer Associate study plan
Databricks Context Engineer Associate · Give each week a clear focus.
8 weeks · About 7 hours per week
Context Engineering Foundations and the Databricks Platform & Context Storage, Modeling, and Retrieval (RAG) with Databricks
Map each of the seven exam domains to its weight and write a one-paragraph summary of what each domain likely tests, so you can allocate later weeks deliberately
Set up a Databricks workspace with a Unity Catalog catalog, a schema, and a personal compute cluster, then confirm you can create a notebook and run a trivial query
Define context engineering in your own words and distinguish it from prompt engineering and from RAG by writing a short comparison note
Explain how Delta Lake tables, notebooks, jobs, and Unity Catalog objects relate to one another, and sketch a diagram of a context pipeline that uses all four
Your checkpoint
A one-page domain map listing all seven domains with weights, your own summary of each, and a labeled architecture sketch of a context pipeline built on Databricks
Context Storage, Modeling, and Retrieval (RAG) with Databricks
Design a target schema for a retrieval corpus, including primary key, source metadata columns, chunk text, and a change-tracking column, and justify each column
Build a Delta table that stores document chunks and load at least 100 rows into it from a small set of source documents
Compare Delta Lake, Parquet, and a plain table format for storing context data, and record which properties (time travel, schema enforcement, upserts) matter for retrieval
Practice MERGE INTO to upsert changed chunks and demonstrate that unchanged rows are not duplicated
Your checkpoint
A working notebook that creates a chunked Delta table of at least 100 rows and performs an idempotent MERGE that you can rerun without creating duplicates
Data Ingestion and Preparation for Context & Context Storage, Modeling, and Retrieval (RAG) with Databricks
Ingest raw documents from at least two different source types (for example files in a volume and rows from a relational table) into a landing area
Implement a cleaning step that strips boilerplate, normalizes whitespace, and removes near-empty records, and log how many rows each rule removed
Choose a chunking strategy, implement it, and compare two chunk sizes on retrieval quality using a handful of hand-written queries
Model metadata for filtering (source, date, document type) and write queries that combine a metadata filter with a text match
Your checkpoint
An ingestion and preparation notebook that processes two source types end to end and a short written comparison of two chunking configurations with example retrieved chunks
Vector Search and Embedding Pipelines
Generate embeddings for your chunk table using a Databricks-hosted or Foundation Model API embedding endpoint and store them alongside chunk IDs
Create a Vector Search index over the chunk table and run at least five similarity queries against it
Explain the tradeoffs between storing embeddings in a Delta table versus a managed vector index, and note the refresh behavior of each
Measure embedding cost and latency for your corpus and extrapolate to a ten-times-larger corpus
Your checkpoint
A functioning Vector Search index with a notebook of at least five queries, plus a table of measured latency and estimated cost at 1x and 10x corpus size
Vector Search and Embedding Pipelines & Context Storage, Modeling, and Retrieval (RAG) with Databricks
Implement hybrid retrieval that combines vector similarity with keyword matching and compare its results to pure vector search on the same query set
Add metadata pre-filtering to your retrieval and verify that filtered queries return only permitted or in-scope documents
Tune retrieval parameters (number of candidates, similarity threshold, reranking) and record how each change affects the relevance of the top results
Document the retrieval design decisions and the failure modes you observed, such as chunks that split mid-sentence or duplicate near-identical passages
Your checkpoint
A retrieval comparison report showing top results for at least eight queries under pure vector, hybrid, and filtered-hybrid configurations, with your chosen configuration justified
Building and Orchestrating Context-Aware Applications
Build an end-to-end application flow that takes a user question, retrieves context, assembles a prompt, and returns an answer with cited source chunks
Implement prompt assembly rules that respect a token budget and define what happens when retrieved context exceeds it
Orchestrate the pipeline as a Databricks job or scheduled workflow rather than manual notebook runs, and handle a failure case gracefully
Add a simple interface layer, such as a notebook function or a small app endpoint, and test it with ten realistic questions
Your checkpoint
A runnable end-to-end context-aware application, executed as a job, that answers ten test questions with source citations and survives at least one injected failure
Governance, Security, and Data Quality for Context & Evaluation, Monitoring, and Optimization of Context Pipelines
Apply Unity Catalog privileges so that only intended groups can read the chunk table and query the index, and verify access with a second identity
Implement data quality checks on your corpus (null rates, duplicate rate, minimum chunk length, staleness) and route failing records to a quarantine table
Define evaluation metrics for retrieval and for the final answer, then build a small labeled evaluation set of at least twenty questions with expected sources
Run your evaluation and produce a baseline scorecard that you can rerun after any pipeline change
Your checkpoint
A governance and quality package: a privilege matrix you verified, a data quality check notebook with quarantine output, and a baseline evaluation scorecard over at least twenty labeled questions
Evaluation, Monitoring, and Optimization of Context Pipelines & Context Engineering Foundations and the Databricks Platform
Instrument the pipeline with logging for latency, token usage, retrieval hit rate, and failure counts, and review the logs for one full run
Change one pipeline component (chunking, embedding model, or retrieval settings) and quantify the effect on your evaluation scorecard
Review each of the seven domains against your week-one map and list the specific gaps that remain
Complete a timed practice set of mixed-domain questions and analyze every miss by domain and by root cause
Your checkpoint
A final optimization report showing before-and-after evaluation scores for one deliberate change, plus a gap list naming the domains and subtopics you still need to review
Milestones
Week 2: You can create and query a Delta table of chunks, and you can explain why Delta Lake suits retrieval storage better than raw Parquet for your use case
Week 4: A Vector Search index returns relevant chunks for at least four of five sample queries, and you can state your measured query latency and estimated embedding cost
Week 6: The end-to-end application runs as a scheduled job and returns answers with citations for ten test questions without manual intervention
Week 8: You have a rerunnable evaluation scorecard, a documented before-and-after comparison for one optimization, and a written list of remaining domain gaps