
Meet your instructor as he guides a roadmap to modern, scalable data architectures. Explore data mesh, data products, and distributed pipelines on AWS and Azure, with practical, actionable insights.
Master practical data architecture, from fundamentals to cloud-based implementations, and learn to design scalable data models and pipelines that align with business outcomes.
Explore the core tenets of data architecture: data quality, scalability, security, cost efficiency, governance, and compliance to build reliable data ecosystems with accessible, flexible, and maintainable assets.
Discover how data architecture serves as a blueprint for data flow, ensuring quality, scalability, security, and cost efficiency while enabling accessibility, adaptability, and robust governance.
Explore monolithic, distributed, and cloud-based data architectures, and learn how each design shapes data flow, scalability, global reach, and cost efficiency for different business contexts.
Explore monolithic architecture, a single unified application where the UI, business logic, and data access share one code base and database. It delivers simplicity and fast performance but risks scalability.
Explore distributed architecture and its independent services that communicate via APIs or message queues, enabling scalability and reliability while managing complexity.
Cloud based architecture enables scalable, cost-efficient data systems with global accessibility, automatic scaling, real-time analytics, and managed services across regions.
Compare monolithic, distributed, and cloud based architectures to understand strengths, limitations, and global accessibility. Assess trade-offs for scale, elasticity, and business goals, and analyze scenarios to select most effective model.
view data modeling as a blueprint for your data architecture, showing how data is organized and related. explain conceptual, logical, and physical models with entities, attributes, relationships, keys, storage considerations.
Explore relational databases, NoSQL, and columnar storage to understand data storage, management, and retrieval across SQL, ACID concepts, and analytics-focused architectures.
Explore relational, NoSQL, and columnar design approaches to match application needs, including air modeling and normalization for relational databases, and access-pattern driven NoSQL schemas optimized for analytics.
Apply normalization to eliminate data redundancy and organize data logically through first, second, and third normal forms, improving data integrity and consistency while managing trade-offs in joins, complexity, and performance.
Denormalization boosts read performance by consolidating data into fewer tables, reducing joins and simplifying queries, at the cost of data redundancy, storage needs, and update complexity.
Assess application needs and read/write patterns to choose normalization or denormalization, applying a hybrid approach for core data integrity and targeted performance, with real-world examples.
Explore a real-world e-commerce case study of Shopee's data architecture, balancing relational, NoSQL, and columnar databases with normalization and denormalization. Learn practical data modeling and hybrid design decisions.
Examine how data pipelines ingest data from databases, APIs, and sensors, process and store it to enable real-time analytics, data quality, and scalable integration for informed decisions.
Compare ETL and ELT, detailing extract, transform, load vs extract, load, transform, and explain when to use each, with benefits, limitations, data quality, governance, and big data considerations.
Explore data pipeline tools and cloud and on-premises options, including Apache NiFi, Apache Kafka, Talent Open Studio, Informatica PowerCenter, and AWS, Azure, Google Cloud services for scalable, secure pipelines.
Define batch processing as data collected over a period and processed at once at scheduled intervals, suited for large volumes and non real-time insights.
Real time processing handles data instantly with low latency and continuous flow, enabling timely decisions and proactive issue detection through real time analytics and IoT or fraud use cases.
Compare batch and real-time data processing to understand when to use large-volume batch analysis versus instant real-time insights; apply best practices for scalability, data quality, and monitoring.
Explore architecting robust data pipelines with fault tolerance, idempotent operations, robust error handling, monitoring, scalability, and maintainability to ensure reliable data flow from source to destination.
Build robust pipelines with strong security, encrypting data at rest and in transit. Enforce access controls and OAuth or JWT authentication to verify identities and ensure GDPR and HIPAA compliance.
Drive data-driven patient outcomes by building robust data pipelines that blend batch and real-time processing, integrating EHRs, lab data, devices, and administrative systems for unified access.
Compare data warehouses and data lakes, outlining schema on write versus schema on read, and when to use each for analytics, reporting, data science, and machine learning.
Unify data lakes and warehouses in a data lakehouse to store structured, semi-structured, and unstructured data and run business intelligence, machine learning, and real time analytics with governance and performance.
Explore how data mesh decentralizes ownership and treats data as a product, while data fabric unifies access with automation, metadata and federated governance.
Explore a real-world retail case study of migrating from a data warehouse to a data lakehouse, data mesh, and data fabric to balance governance and agility.
Explore how Amazon Web Services empower data engineers to build scalable data lakes and warehouses with Amazon S3, Redshift, Glue, Kinesis, EMR, and Lambda, enabling real-time analytics and data transformation.
Discover how Azure Data Lake Storage, Azure Synapse Analytics, Azure Data Factory, Azure Databricks, and Azure Stream Analytics build scalable, secure data architectures for storage, processing, and analytics.
Explore how hybrid and multi-cloud architectures blend on-premises data with cloud services like AWS, Azure, and GCP to enhance flexibility, governance, latency, and compliance.
Evaluate data volume, velocity, variety, and processing needs to select a scalable architecture, then map requirements to data warehouse, data lake, lake house, data mesh, or data fabric.
Craft data architectures, data modeling, governance and security, and pursue certifications like TOGAF, CDMP, AWS for engineers advancing to data architect.
Apply practical data architecture concepts for data engineers, from traditional warehouses and data lakes to lakehouse, data mesh, and data fabric with AWS, Azure, and hybrid multi-cloud strategies.
Unlock the potential of data architecture with Data Architecture for Data Engineers: Practical Approaches. This course is designed to give data engineers, aspiring data architects, and analytics professionals a solid foundation in creating scalable, efficient, and strategically aligned data solutions.
In this course, you’ll explore both traditional and modern data architectures, including data warehouses, data lakes, and the emerging data lakehouse approach. You'll learn about distributed and cloud-based architectures, along with practical applications of each to suit different data needs. We cover key aspects like data modeling, governance, and security, with emphasis on practical techniques for real-world implementation.
Starting with the foundational principles—data quality, scalability, security, and cost efficiency—we'll guide you through designing robust data pipelines, understanding ETL vs. ELT processes, and integrating batch and real-time data processing. With dedicated sections on AWS, Azure, and hybrid/multi-cloud architectures, you’ll gain hands-on insights into leveraging cloud tools for scalable data solutions.
This course also prepares you for a career transition, offering guidance on skills, certifications, and steps toward becoming a data architect. Through case studies, quizzes, and real-world examples, you’ll be equipped to make strategic architectural decisions and apply best practices across industries. By the end, you’ll have a comprehensive toolkit to design and implement efficient data architectures that align with business goals and emerging data needs.