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Martin Timmerman

Architecting smart IoT (Internet of Things) devices involves designing and developing interconnected devices that can collect and exchange data over the internet to perform various functions and tasks. These devices are equipped with sensors, microcontrollers, communication modules, and software, allowing them to interact with the physical world and communicate with other devices or central systems.

What will you learn?

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Architecting smart IoT (Internet of Things) devices involves designing and developing interconnected devices that can collect and exchange data over the internet to perform various functions and tasks. These devices are equipped with sensors, microcontrollers, communication modules, and software, allowing them to interact with the physical world and communicate with other devices or central systems.

What will you learn?

Embedded Systems are so ubiquitous that some of us take them for granted: we find them in smartphones, GPS systems, airplanes, and so on. But have you ever wondered how these devices actually work? If so, you're in the right place!

In this course, you'll learn about the characteristics of embedded systems: the possibilities, dangers, complications, and recipes for success. We'll discuss all of this in the framework of a flourishing embedded systems field: the Internet of Things, where billions of intercommunicating devices could enable unprecedented, innovative products and services. If you'd like to learn how to create similarly innovative products, then this is the course for you!

At the end of the course, you'll be able to:

- make the right choice for your own project when it comes to the target market, parallel executions, time, and the lifecycle of your system

- hack, avoid failure and promote success

- decide whether to buy or to build components

- how to assemble a good team

- install case tools

- learn how to work with SysML

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What's inside

Syllabus

What are Embedded Systems?
This first module will define what embedded systems are by looking at the most important EmS market areas and different characteristics of EmS. Furthermore we will talk about dealing with multiple events at the same time, the importance of world time, and the duration of an EmS lifecycle.
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Traffic lights

Read about what's good
what should give you pause
and possible dealbreakers
Teaches how to make the right choice for your own project when it comes to the target market, parallel executions, time, and the lifecycle of your system
Develops hacking skills to avoid failure and promote success
Determines whether to buy or build components
Emphasizes the importance of assembling a good team
Explains how to install case tools

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Reviews summary

Iot embedded systems architectural overview

According to learners, this course provides a solid introduction to the architecture and design principles of smart IoT devices. Students found it helpful for understanding the high-level concepts, including the system lifecycle and factors influencing design choices. However, many noted the course is highly theoretical and lacks sufficient hands-on examples or practical coding, making it less suitable for those seeking immediate implementation skills. It's described as a good overview for understanding the "why" rather than the "how" of embedded IoT systems architecture, appealing more to those interested in the design phase than direct implementation.
Introduces system modeling language.
"The introduction to SysML was interesting, providing a formal way to model systems."
"While useful for architects, the SysML part felt a bit dense and less immediately applicable for others."
"I appreciated learning about a modeling language, though I'll need more practice to use it effectively."
Detailed look at the system's lifespan.
"The section on the embedded system lifecycle was particularly insightful and well-explained."
"Understanding the full product lifecycle, from requirements to retirement, is a key takeaway."
"Discussing topics like 'buy vs. build' and team assembly adds a valuable project management layer."
"The course goes beyond just technical aspects to cover the full scope of a system's life."
Provides a good foundation in IoT architecture.
"A great course for understanding the architectural considerations for smart IoT devices."
"It gave me a valuable perspective on the design challenges and decision-making process."
"The course helps frame the complex landscape of embedded systems in IoT from a systems design view."
"I learned about important factors like lifecycle, risks, and market considerations."
May be challenging without prior knowledge.
"As a complete beginner, I found some of the concepts quite abstract and difficult to grasp."
"Requires some foundational knowledge in embedded systems or general software/hardware principles."
"Needed to do external research to fully understand certain technical terms and diagrams."
"It assumes a certain level of familiarity with engineering concepts, which might overwhelm novices."
Emphasizes concepts over practical skills.
"This course was much more theoretical than I anticipated, focusing heavily on concepts without practical implementation."
"While the architectural overview is good, I was hoping for more hands-on exercises or coding examples."
"It provides a high-level understanding, but don't expect to build anything after this; it's very abstract."
"The material felt quite academic and dry at times, needing more real-world application examples to solidify understanding."

Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Introduction to Architecting Smart IoT Devices with these activities:
Review Embedded Systems Basics
Reinforcement of the concepts and principles of embedded systems will help improve a baseline for this course
Browse courses on Embedded Systems
Show steps
  • Review definitions, characteristics, and applications of embedded systems
  • Explore the different types of embedded systems and their uses
  • Identify the key components of an embedded system
Parallel Execution and Multitasking
This topic is a critical skill to master in embedded systems and can be greatly improved with practice
Browse courses on Multitasking
Show steps
  • Find online tutorials on parallel execution and multitasking in embedded systems
  • Practice implementing simple parallel and multitasking programs
  • Explore different techniques for achieving parallelism and multitasking in embedded systems
Design an Embedded System for a Smart Home Appliance
Project-based learning is an effective way to solidify knowledge and demonstrate understanding of embedded systems design
Browse courses on Embedded Systems Design
Show steps
  • Choose a specific smart home appliance to design an embedded system for
  • Research the requirements and specifications for the embedded system
  • Design the hardware architecture of the embedded system
  • Write the software for the embedded system
  • Test and debug the embedded system
Show all three activities

Career center

Learners who complete Introduction to Architecting Smart IoT Devices will develop knowledge and skills that may be useful to these careers:
Computer Hardware Engineer
A Computer Hardware Engineer designs, develops, and tests computer hardware, including embedded systems. This course provides a foundation in the design and development of embedded systems and can help you build the skills needed to succeed in this role. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Embedded Systems Engineer
An Embedded Systems Engineer designs and develops embedded systems, which are computer systems that are embedded in other devices. This course provides a foundation in the design and development of embedded systems and can help you build the skills needed to succeed in this role. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Electrical Engineer
An Electrical Engineer designs, develops, and tests electrical systems, including embedded systems. This course provides a foundation in the design and development of embedded systems and can help you build the skills needed to succeed in this role. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Electronics Engineer
An Electronics Engineer designs, develops, and tests electronic systems, including embedded systems. This course provides a foundation in the design and development of embedded systems and can help you build the skills needed to succeed in this role. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Software Engineer
A Software Engineer designs, develops, and tests software, including embedded software. This course provides a foundation in the design and development of embedded systems and can help you build the skills needed to succeed in this role. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Systems Engineer
A Systems Engineer designs, develops, and tests systems, including embedded systems. This course provides a foundation in the design and development of embedded systems and can help you build the skills needed to succeed in this role. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Test Engineer
A Test Engineer tests electrical, electronic, and mechanical systems, including embedded systems. This course provides a foundation in the design and development of embedded systems and can help you build the skills needed to succeed in this role. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Product Manager
A Product Manager plans and manages the development and marketing of products, including embedded systems. This course can help you build the skills needed to succeed in this role by providing a foundation in the design and development of embedded systems. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Technical Writer
A Technical Writer creates and edits technical documentation, including documentation for embedded systems. This course can help you build the skills needed to succeed in this role by providing a foundation in the design and development of embedded systems. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Project Manager
A Project Manager plans and manages projects, including projects to develop embedded systems. This course can help you build the skills needed to succeed in this role by providing a foundation in the design and development of embedded systems. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Business Analyst
A Business Analyst analyzes business needs and designs solutions, including solutions that involve embedded systems. This course can help you build the skills needed to succeed in this role by providing a foundation in the design and development of embedded systems. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Sales Engineer
A Sales Engineer sells and supports technical products, including embedded systems. This course can help you build the skills needed to succeed in this role by providing a foundation in the design and development of embedded systems. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Marketing Manager
A Marketing Manager plans and manages marketing campaigns, including campaigns for embedded systems. This course can help you build the skills needed to succeed in this role by providing a foundation in the design and development of embedded systems. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Data Scientist
A Data Scientist analyzes data and develops models to solve problems, including problems related to embedded systems. This course can help you build the skills needed to succeed in this role by providing a foundation in the design and development of embedded systems. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.
Quality Assurance Engineer
A Quality Assurance Engineer tests and evaluates products, including embedded systems. This course can help you build the skills needed to succeed in this role by providing a foundation in the design and development of embedded systems. You will learn about the different types of embedded systems, the challenges of designing and developing them, and the tools and techniques used in the industry.

Reading list

We've selected 39 books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Introduction to Architecting Smart IoT Devices.
Covers advanced but essential topics of contemporary embedded systems design. Good coverage of hardware and software design techniques.
Provides a comprehensive overview of embedded systems from both a software and hardware perspective, covering hardware, software, and design techniques.
Provides a comprehensive overview of embedded systems interfacing, covering hardware, software, and design techniques.
Provides a textbook for students and engineers on embedded systems, covering hardware, software, and design techniques.
Provides a solid foundation in embedded systems. It also serves as a reference guide containing dozens of applications from various industries. Recommended for additional indepth reading and reference.
Provides a collection of case studies of world-class embedded systems designs, covering hardware, software, and design techniques.
This practical guide provides a hands-on approach to embedded software development using the 8051 microcontroller and Embedded C programming language. It covers the fundamentals of embedded systems, programming techniques, and hardware interfacing.
Provides a comprehensive overview of embedded systems architecture, covering hardware, software, and design techniques.
Provides a comprehensive overview of embedded systems design and implementation, covering hardware, software, and design techniques.
Provides a hands-on guide to developing embedded software in C, including topics such as memory management, interrupts, and real-time programming.
Provides a comprehensive overview of embedded systems design. Suitable for self-study.
A classic in embedded systems design. Covers hardware and software co-design and real-time operating systems.
Provides a practical guide to programming embedded systems, covering hardware, software, and design techniques.
Provides a comprehensive overview of real-time systems, including topics such as scheduling, concurrency, and fault tolerance.
Provides an introduction to embedded system design, focusing on how hardware and software interact.
Provides a comprehensive overview of Embedded Linux programming.
Introduces the SystemVerilog language and its application in the verification of embedded systems. It provides a comprehensive overview of the language's features and capabilities, as well as practical examples of its use.
Provides a comprehensive guide to developing embedded Linux systems, including topics such as kernel configuration, device drivers, and file systems.
Provides a philosophical and practical approach to embedded systems design, discussing the design principles, trade-offs, and best practices involved in the development of reliable and efficient embedded systems.
Provides a comprehensive reference for embedded systems, including topics such as hardware design, software development, and testing.
A valuable resource for programmers seeking to improve their software designs and implement design patterns in embedded systems.
Provides a hands-on guide to building embedded systems, including topics such as hardware selection, software development, and testing.
Provides a detailed overview of embedded systems using ARM Cortex-M microcontrollers, including topics such as assembly language programming and C programming.
Provides a detailed overview of embedded microcontrollers, including topics such as architecture, programming, and interfacing.
Provides a high-level overview of embedded systems, including topics such as architecture, programming, and real-time systems.
Provides an integrated approach to embedded systems, including topics such as hardware design, software development, and testing.
Provides an overview of best practices for embedded systems design and presents real-world examples of successful designs.
Introduces embedded systems programming using the C programming language and the GNU development tools. It provides a practical approach to embedded systems development, covering topics such as hardware interfacing, memory management, and debugging techniques.
Provides a practical guide to designing and developing embedded Linux systems.
Explains how to use TinyML to build machine learning models that can run directly on ultra-low-power microcontrollers.

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