Data Migration, Big Data, Business Intelligence, Data Management
Revolutionizing Data Pipelines: The Shift from ETL to Data Fabric
For decades, organizations have relied on Extract, Transform, Load (ETL) to move data from operational silos into centralized warehouses. However, storage, compute, and bandwidth advancements have given rise to a more efficient model—Extract, Load, Transform (ELT). By loading data in its raw form before transformation, ELT enables near real-time updates and significant cost savings by leveraging native compute power close to the data source.
Yet, even ELT has its limitations. Enter the Data Lake and Data Lakehouse concepts, which create a central repository for raw data, reducing the need for redundant pipelines. However, many implementations still depend on final destination warehouses like Redshift, Databricks, or Snowflake rather than genuinely independent storage.
The latest evolution in data architecture is Data Fabric. Unlike previous models, Data Fabric leaves data within its original silos, enabling on-demand queries, transformations, and aggregations without physically moving data. While this approach reduces duplication and enhances flexibility, performance trade-offs must be carefully considered.
Transforming Federal Big Data Strategies
Federal agencies face unique challenges in managing vast amounts of data while ensuring security, compliance, and interoperability across systems. Traditional ETL approaches have often resulted in data fragmentation and delayed decision-making. Agencies can streamline their data strategies by adopting ELT and Data Fabric models, enabling near real-time analytics and improved data sharing across departments without compromising security.
A Data Fabric approach allows federal agencies to integrate data across multiple sources, including legacy systems, cloud platforms, and third-party data providers. This fosters greater data accessibility while reducing infrastructure costs and operational complexity. Additionally, AI-driven data transformations—such as anomaly detection and predictive analytics—can enhance fraud detection, public service optimization, and regulatory compliance efforts.
Implementing a modern data pipeline strategy with the growing demand for transparency and efficiency in government operations is essential. Agencies that embrace Data Fabric and AI-powered data engineering will be better positioned to provide data-driven insights, improve decision-making, and enhance citizen services.
Transforming Data for Maximum Value
Data pipelines are more than just data movement—they involve critical transformations to ensure data quality and usability. This includes:
- Anomaly Detection: Identifying and flagging inconsistencies or missing values.
- Cleaning & Curation: Refining data through interpolation, external validation, or structured formatting (e.g., aligning addresses with USPS standards).
- Canonical Translation: This refers to classifying entities – i.e., small, medium, and large vs. giving weights in lbs. format. There is an expression: “Make the data match the person, not the person match the data.”
- Data Generation: Leveraging AI/ML for classification, prediction, sentiment analysis, and image recognition.
- Mapping & Translation: Standardizing entity relationships and canonical representations across disparate data sources.
- Dimensional Modeling: Structuring data for optimal analysis and self-service reporting.
Done correctly, these functions become a virtuous circle, ensuring high data quality and preparing the agency for the rapidly expanding benefits of AI.
The Future of Data Engineering
As the government strives for more agile, scalable, and cost-effective data strategies, the shift from ETL to Data Fabric represents a paradigm shift in data engineering. Future-ready enterprises—and government agencies—will need to balance performance, accessibility, and governance while integrating AI-driven automation to enhance data pipeline efficiency. The key to success? Working with a partner with deep business and data domain knowledge to design resilient and adaptable architectures.

Matt Ferguson
Director of DEAM - Data Engineering, AI & Machine Learning