Book Image

Intelligent Workloads at the Edge

By : Indraneel Mitra, Ryan Burke
Book Image

Intelligent Workloads at the Edge

By: Indraneel Mitra, Ryan Burke

Overview of this book

The Internet of Things (IoT) has transformed how people think about and interact with the world. The ubiquitous deployment of sensors around us makes it possible to study the world at any level of accuracy and enable data-driven decision-making anywhere. Data analytics and machine learning (ML) powered by elastic cloud computing have accelerated our ability to understand and analyze the huge amount of data generated by IoT. Now, edge computing has brought information technologies closer to the data source to lower latency and reduce costs. This book will teach you how to combine the technologies of edge computing, data analytics, and ML to deliver next-generation cyber-physical outcomes. You’ll begin by discovering how to create software applications that run on edge devices with AWS IoT Greengrass. As you advance, you’ll learn how to process and stream IoT data from the edge to the cloud and use it to train ML models using Amazon SageMaker. The book also shows you how to train these models and run them at the edge for optimized performance, cost savings, and data compliance. By the end of this IoT book, you’ll be able to scope your own IoT workloads, bring the power of ML to the edge, and operate those workloads in a production setting.
Table of Contents (17 chapters)
1
Section 1: Introduction and Prerequisites
3
Section 2: Building Blocks
10
Section 3: Scaling It Up
13
Section 4: Bring It All Together

Knowledge check

Before moving on to the next chapter, test your knowledge by answering these questions. The answers can be found at the end of the book:

  1. What's the difference between a cyber-physical solution and an edge solution?
  2. At the time it was invented, the automobile was a self-contained mechanical entity, not a cyber-physical solution or an edge solution. At some point in the evolution of the automobile, it started meeting the definition of a cyber-physical solution, and then again meeting the definition of an edge solution. What are the characteristics of automobiles we can find today that meet our definition of an edge solution?
  3. Has the telephone always been a cyber-physical solution? Why or why not?
  4. What are the common components of an edge solution?
  5. What are the three primary types of tools needed to deliver intelligence workloads at the edge?
  6. What are the four key benefits in edge-to-cloud workloads that can be achieved with ML models running at the edge?
  7. Who is the primary persona at the heart of any smart home solution?
  8. Can you identify one more use case for the smart home vertical that ties in with one more of the key benefits for ML-powered edge solutions?
  9. Who is the primary persona at the heart of any industrial solution?
  10. Can you identify one more use case for any industrial vertical that ties in with one more of the key benefits of ML-powered edge solutions?
  11. Is the IoT architect of an ML-powered edge solution typically responsible for the performance accuracy (for example, confidence scores for a prediction) of the models deployed? Why or why not?