Course Outline
Introduction, Objectives, and Strategic Migration Framework
- Defining instructional goals, aligning with target audience competencies, and establishing measurable performance indicators
- Evaluating high-level migration methodologies and associated operational risk factors
- Configuration of development environments, version control repositories, and standardized test datasets
Day 1 — Core Migration Principles and System Architecture
- Foundational principles of the Lakehouse model, Delta Lake capabilities, and the Databricks platform structure
- Comparative analysis of Symmetric Multiprocessing (SMP) versus Massively Parallel Processing (MPP) architectures and their impact on migration strategy
- Implementation of the Medallion architecture (Bronze, Silver, Gold layers) and integration with Unity Catalog
Day 1 Practical Application — Conversion of Stored Procedures
- Direct translation of legacy stored procedure logic into executable notebook workflows
- Conversion of temporary tables and cursor-based logic into stateless DataFrame transformations
- Verification of functional integrity through comparative output analysis
Day 2 — Advanced Delta Lake Mechanics and Incremental Data Loading
- Management of ACID transactions, commit history, data versioning, and time travel capabilities
- Application of Auto Loader, MERGE INTO statements, upsert operations, and dynamic schema evolution
- Optimization of storage efficiency and query performance via OPTIMIZE, VACUUM, Z-ORDER, and partitioning strategies
Day 2 Practical Application — Incremental Ingestion and Performance Tuning
- Deployment of Auto Loader pipelines and MERGE-based synchronization workflows
- Execution of storage optimization tasks (OPTIMIZE, Z-ORDER, VACUUM) and validation of data integrity
- Quantification of performance gains in data read and write operations
Day 3 — Advanced SQL Execution in Databricks, Performance Analysis, and Diagnostics
- Utilization of advanced analytical SQL features, including window functions, higher-order functions, and complex JSON/array processing
- Interpretation of Spark UI metrics, Directed Acyclic Graphs (DAGs), shuffle operations, and stage-level bottleneck identification
- Application of query optimization techniques such as broadcast joins, execution hints, result caching, and memory spill mitigation
Day 3 Practical Application — SQL Refactoring and Performance Optimization
- Restructuring complex SQL workloads into optimized Spark SQL equivalents
- Leveraging Spark UI diagnostics to resolve data skew and inefficient shuffle operations
- Conducting baseline versus post-optimization benchmarking and documenting technical tuning procedures
Day 4 — Applied PySpark: Replacement of Procedural Logic
- Comprehension of the Spark execution model, including driver nodes, executors, lazy evaluation, and data partitioning strategies
- Refactoring iterative loops and cursor-based processes into vectorized, distributed DataFrame operations
- Implementation of modular design patterns, user-defined functions (UDFs), pandas UDFs, interactive widgets, and reusable component libraries
Day 4 Practical Application — Modernization of Procedural Scripts
- Re-engineering legacy procedural ETL scripts into structured PySpark notebook modules
- Incorporation of parameterization, unit testing frameworks, and standardized function libraries
- Execution of peer code reviews and application of industry-standard best practice checklists
Day 5 — Orchestration, End-to-End Pipeline Design, and Governance Standards
- Construction of Databricks Workflows, including task dependency mapping, trigger configuration, and robust error handling mechanisms
- Design of incremental Medallion pipelines incorporating data quality rules and schema validation controls
- Integration with Git-based version control (GitHub/Azure DevOps), continuous integration (CI) pipelines, and automated testing protocols for PySpark logic
Day 5 Practical Application — Construction of a Comprehensive End-to-End Pipeline
- Assembly of a complete Bronze-to-Silver-to-Gold pipeline orchestrated via Databricks Workflows
- Implementation of centralized logging, audit trails, automated retry mechanisms, and data validation checks
- Execution of full pipeline simulation, output verification, and preparation of deployment documentation
Operationalization, Governance, and Production Deployment Readiness
- Enforcement of Unity Catalog governance, data lineage tracking, and granular access control policies
- Optimization of resource costs, cluster sizing, autoscaling configurations, and concurrent job management
- Development of deployment checklists, rollback procedures, and operational runbooks
Final Review, Knowledge Consolidation, and Strategic Next Steps
- Participant presentations detailing migration outcomes and critical lessons learned
- Conduct of gap analysis, formulation of recommended follow-up initiatives, and transfer of comprehensive training materials
- Provision of technical references, advanced learning pathways, and ongoing support resources
Requirements
- A solid understanding of data engineering concepts
- Proficiency in SQL and stored procedure development (e.g., Synapse Analytics or SQL Server)
- Familiarity with ETL orchestration principles (e.g., Azure Data Factory or equivalent tools)
Target Audience
- Technology managers with a data engineering background
- Data engineers transitioning from procedural OLAP logic to modern Lakehouse patterns
- Platform engineers responsible for the adoption and management of Databricks solutions