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Aviral Mishra

I have divided this course into four major sections:

  1. Selection of Components: Choosing each component that will be used in the schematic.

  2. Schematic Design: Designing schematics based on datasheet information.

  3. Stack-up and Placement: Planning and executing 4-layer, 6-layer, 8-layer, and 12-layer stack-ups, along with component placement.

  4. Layout Planning: Inter-block and intra-block layout planning and execution.

The major schematic blocks designed in this course include:

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I have divided this course into four major sections:

  1. Selection of Components: Choosing each component that will be used in the schematic.

  2. Schematic Design: Designing schematics based on datasheet information.

  3. Stack-up and Placement: Planning and executing 4-layer, 6-layer, 8-layer, and 12-layer stack-ups, along with component placement.

  4. Layout Planning: Inter-block and intra-block layout planning and execution.

The major schematic blocks designed in this course include:

  • Ethernet PHY (10/100 Mb/s)

  • I2S DAC for headphones and speakers

  • MEMS microphone

  • 24-bit ADC

  • 36W bi-directional brushed DC motor drivers

  • UART to USB TTL converter

You will also learn basic blocks such as:

  • Pre-schematic design: Block diagrams and power budgeting

  • Rules for stack-up selection and defining stack-ups

  • Grounding techniques: Signal grounding, earth grounding, chassis grounding

  • Creating rigid-flex PCBs and their stack-ups

  • Pin-mapping using Cube-MX tool

  • Power distribution network (PDN) analysis for PCBs

  • Selection and application of ferrite beads, ESD diodes, and magnetic components

  • Placement and layout planning using Microsoft Paint

After completing this course, you will be able to design mixed-signal PCBs with microcontrollers available worldwide.

The major controllers used in this course are:

  • STM32F407XX

  • STM32F103XX

  • Ethernet PHYs, various sensors, ADCs, and DACs

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What's inside

Learning objectives

  • How to extract components information from requirement sheet
  • Selection of component for example: ethernet phy, micro-controller, motor driver, mosfets, adc, adc/dac, mic etc.
  • How to draw a complex schematic block and its power budget diagrams
  • What are differential pairs, usb2.0, i2cs, uart/usart, can, mii/rmii, i2s and many more interfaces
  • Emi & emc decisions for a complex mixed signal schematic design
  • How to create design rules decision for complex mixed signal board
  • Layer stack-up design (4l/6l/8l/12l) and field solver simulation
  • How to define board shape and rigid-flex pcb board
  • Components placement planning for a complex board and its execution
  • How to layout a complex board with more than 10,000 interconnects, and layout optimization
  • Power distribution network (pdn analysis) and how to read its report + resolve issues
  • Show more
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Syllabus

1- Project Requirements sheet discussion 2- We'll make the list of selected components for our Project 3- Discuss the Reference documents and Development 4- Other Schematic components
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Read about what's good
what should give you pause
and possible dealbreakers
Covers stack-up design for 4-layer, 6-layer, 8-layer, and 12-layer PCBs, which is essential for optimizing signal integrity and EMC performance in complex electronic devices
Explores grounding techniques, including signal grounding, earth grounding, and chassis grounding, which are crucial for minimizing noise and ensuring reliable circuit operation
Includes hands-on experience with STM32 microcontrollers, Ethernet PHYs, ADCs, and DACs, which are widely used in embedded systems and mixed-signal applications
Emphasizes EMI and EMC considerations for complex mixed-signal schematic design, which is critical for ensuring regulatory compliance and reliable product performance
Utilizes Microsoft Paint for placement and layout planning, which may be useful for initial planning but is not industry-standard PCB design software
Focuses on specific STM32 microcontrollers (STM32F407XX, STM32F103XX), which may limit the breadth of knowledge applicable to other microcontroller platforms

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Reviews summary

Comprehensive professional electronics hardware design

According to learners, this course offers a highly comprehensive and detailed guide to electronics hardware design, specifically targeting complex mixed-signal PCBs. Students praise the practical, real-world approach, covering everything from component selection and schematic design to advanced topics like multilayer stack-ups (4L-12L) and Power Distribution Network (PDN) analysis. Many reviewers found the content invaluable for professional development and filling knowledge gaps. However, some learners note that the course assumes prior knowledge and might be challenging for beginners, feeling more suitable for intermediate to advanced practitioners.
Focuses on real-world design processes and components.
"The entire course structure, moving from selection to schematic to layout and analysis, mirrors a real-world design process."
"The project-based approach makes the learning very practical."
"The examples are relevant to modern electronics."
Covers broad scope & advanced topics in detail.
"This is by far the most comprehensive course I've ever taken on PCB design. The instructor covers everything..."
"A very detailed course covering a lot of ground in mixed-signal PCB design. The explanations for stack-up rules..."
"The coverage of multi-layer stack-ups (4L-12L) is a major plus. This is hard to find detailed information on."
Excellent coverage of specific complex areas.
"The PDN analysis section was particularly insightful and often overlooked in other courses."
"Finally, a course that covers PDN analysis properly! This module alone is worth the price."
"It goes beyond the basics taught elsewhere and covers advanced topics like impedance control, stack-up simulation..."
Might be challenging for beginners.
"However, it assumes a certain level of prior knowledge. Beginners might struggle with the pace and depth..."
"I found this course difficult to follow... especially if you are not already familiar with the concepts."
"It feels like it's for people who already know a lot and just need specific advanced techniques..."

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 Complete Electronics Hardware Design Course 2025 -EsteemPCB with these activities:
Review Basic Electronics Concepts
Strengthen your understanding of fundamental electronics principles. A solid grasp of these concepts is crucial for success in the course.
Browse courses on Ohm's Law
Show steps
  • Review textbooks or online resources covering basic electronics.
  • Solve practice problems related to Ohm's Law and Kirchhoff's Laws.
  • Familiarize yourself with the characteristics of resistors, capacitors, and inductors.
Review 'Practical Electronics for Inventors'
Gain a deeper understanding of electronics fundamentals. This book provides a solid foundation for the course material.
Show steps
  • Read the chapters related to basic circuit components and analysis.
  • Work through the example problems provided in the book.
  • Refer to the book as needed throughout the course for clarification on specific topics.
Follow PCB Design Tutorials
Enhance your PCB design skills by following online tutorials. This will help you become more proficient with PCB design software and techniques.
Show steps
  • Search for tutorials on PCB design using EsteemPCB or similar software.
  • Follow the tutorials to create a simple PCB layout.
  • Experiment with different design techniques and features.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Practice Schematic Capture
Improve your schematic capture skills through repetitive exercises. This will help you become more efficient at creating accurate schematics.
Show steps
  • Redraw existing schematics from datasheets or application notes.
  • Focus on accuracy and attention to detail.
  • Time yourself to track your progress.
Design a Simple Breakout Board
Apply your knowledge by designing a simple breakout board for a common component. This will solidify your understanding of component selection, schematic design, and layout planning.
Show steps
  • Select a common component, such as an accelerometer or temperature sensor.
  • Design a schematic for a breakout board for the selected component.
  • Create a PCB layout for the breakout board.
  • Order the PCB and assemble the breakout board.
PDN Analysis Report
Deepen your understanding of power distribution networks by creating a detailed analysis report. This will help you identify potential issues and optimize your designs.
Show steps
  • Select a PCB design from the course or your own projects.
  • Perform a PDN analysis using appropriate software tools.
  • Analyze the results and identify potential issues.
  • Write a report summarizing your findings and recommendations.
Review 'High-Speed Digital Design: A Handbook of Black Magic'
Expand your knowledge of high-speed digital design principles. This book provides valuable insights into signal integrity and other advanced topics.
Show steps
  • Read the chapters related to signal integrity and impedance matching.
  • Focus on understanding the underlying principles rather than memorizing specific formulas.
  • Consider how these principles apply to the designs covered in the course.

Career center

Learners who complete Complete Electronics Hardware Design Course 2025 -EsteemPCB will develop knowledge and skills that may be useful to these careers:
Mixed Signal Circuit Designer
A mixed signal circuit designer works on circuits that integrate both analog and digital components, requiring expertise in both domains. This Complete Electronics Hardware Design Course is essential for mixed signal circuit designers as it helps them master the complexities of mixed-signal PCB design. The course covers component selection, schematic design, stack-up planning, and layout execution, with a strong emphasis on grounding techniques and power distribution network analysis. The course's practical approach helps aspiring designers tackle real-world challenges in mixed-signal design.
Printed Circuit Board Designer
A printed circuit board designer translates electronic circuit designs into physical layouts. This Complete Electronics Hardware Design Course helps build skills in schematic design, component selection, stack-up planning for various layer counts, and layout planning, all vital for a printed circuit board designer. The course emphasizes mixed-signal PCBs, which are increasingly common, and covers grounding techniques and power distribution network analysis. Aspiring designers should take this course to help master the essential elements of PCB design from component selection to final layout, using real-world examples like Ethernet PHY and motor drivers.
Embedded Systems Engineer
Embedded systems engineers design, develop, and test embedded systems, which are specialized computer systems integrated into devices for specific functions. This Complete Electronics Hardware Design Course is essential for embedded systems engineers given how deeply it covers component selection, schematic design, and layout execution. The course's emphasis on microcontrollers, mixed-signal PCBs, and interfaces may be helpful for designing efficient systems. This is practical knowledge for embedded systems engineers working on cutting-edge devices.
Analog Circuit Designer
Analog circuit designers specialize in designing circuits that process continuous signals, often requiring a deep understanding of component characteristics and circuit behavior. This Complete Electronics Hardware Design Course is invaluable for analog circuit designers by teaching them component selection, schematic design, and layout techniques crucial for analog circuits. The course covers topics like grounding techniques, power distribution network analysis, and working with ADCs/DACs which helps analog designers design high-performance circuits. The course's hands-on approach provides practical insights into real-world challenges.
Instrumentation Engineer
Instrumentation engineers design, develop, and maintain instruments and control systems used in various industries. This Complete Electronics Hardware Design Course helps instrumentation engineers better understand the electronics involved in instrumentation. The course covers component selection, schematic design, and layout planning, which helps engineers design precise systems. The course's coverage of ADCs, DACs, and sensor interfaces may be particularly helpful for instrumentation engineers.
Hardware Engineer
Hardware engineers research, design, develop, and test computer systems and components. This Complete Electronics Hardware Design Course helps hardware engineers by teaching them component selection, schematic design, stack-up planning, and layout execution. The course covers essential topics like grounding techniques, power distribution network analysis, and the design of mixed-signal PCBs using microcontrollers. Taking this course can help aspiring hardware engineers gain hands-on experience and a thorough understanding of the hardware design process.
Electrical Engineer
Electrical engineers design, develop, test, and supervise the manufacturing of electrical equipment. This Complete Electronics Hardware Design Course helps electrical engineers by providing thorough training in component selection, schematic design, stack-up planning, and layout execution. Electrical engineers will design power systems, and this course covers power budgeting as well as power distribution networks. This course teaches the fundamental elements of effective electrical systems.
Electronics Engineer
An electronics engineer designs, develops, tests, and supervises the manufacturing of electronic equipment. This course helps build expertise in component selection, schematic design, and layout planning. It focuses on practical skills such as designing schematics based on datasheets, planning stack-ups, and understanding grounding techniques. With the course's emphasis on mixed-signal PCBs and microcontrollers like STM32F407XX, aspiring electronics engineers should take this course to help gain a comprehensive understanding of hardware design, from basic blocks to complex systems.
Telecommunications Engineer
Telecommunications engineers design and implement telecommunications systems and networks. This Complete Electronics Hardware Design Course may be helpful for telecommunications engineers by teaching them hardware design principles. The course includes Ethernet PHY design, a critical component in telecommunications. The course also covers grounding techniques, mixed-signal PCBs, and component selection. This course can also help telecommunications engineers develop the practical skills needed to design and maintain reliable systems.
Robotics Engineer
Robotics engineers design, build, and test robots and automated systems for various applications. This Complete Electronics Hardware Design Course may be useful for robotics engineers by helping them understand the hardware design aspects of robotics. The course covers component selection, schematic design, and layout planning, which may help robotics engineers design integrated robot systems. The course's focus on motor drivers, microcontrollers, and sensor interfaces helps robotics engineers create functional prototypes.
Internet of Things Device Designer
Internet of Things device designers create the hardware and software for interconnected devices that collect and exchange data. This Complete Electronics Hardware Design Course may be useful for IoT device designers by providing a foundation in hardware design. The course covers component selection, schematic design, and layout planning, teaching them skills to help design efficient and reliable IoT devices. The course's focus on microcontrollers, sensors, and communication interfaces helps IoT designers integrate these components into seamless systems.
Firmware Engineer
Firmware engineers develop the software embedded in hardware devices that controls their operation. This Complete Electronics Hardware Design Course may be useful for firmware engineers by providing a solid understanding of the hardware that their firmware will interact with. The course includes topics like component selection, schematic design, and layout planning which may help firmware engineers better understand the capabilities and limitations of the hardware. The course's focus on microcontrollers and interfaces helps firmware engineers design more effective and efficient software.
Test Engineer
Test engineers develop and implement testing procedures for electronic devices and systems. This Complete Electronics Hardware Design Course may be useful for test engineers by providing a deep understanding of the hardware they are testing. The course covers component selection, schematic design, and PCB layout, which may help test engineers create effective test strategies. The course's emphasis on mixed-signal PCBs and microcontrollers allows test engineers to develop comprehensive test plans that ensure product quality and reliability.
Product Engineer
Product engineers are involved in all stages of a product's lifecycle, from initial design to manufacturing and testing. This Complete Electronics Hardware Design Course may be useful to product engineers as it helps them understand the hardware design process intimately. The course covers component selection, schematic design, and layout planning, which may help product engineers make informed decisions about product development. By understanding the intricacies of PCB design and power distribution networks, product engineers can ensure that products are designed for manufacturability, performance, and reliability.
Technical Writer
Technical writers create documentation and guides for complex products and systems. This Complete Electronics Hardware Design Course may be useful for technical writers who need to document electronic hardware. The course helps technical writers understand component selection, schematic design, and layout planning, equipping them to explain technical concepts clearly and accurately. This course's coverage of PCB design, grounding techniques, and power distribution may be especially helpful for creating comprehensive documentation.

Reading list

We've selected two 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 Complete Electronics Hardware Design Course 2025 -EsteemPCB.
Provides a comprehensive overview of electronics, covering both theoretical concepts and practical applications. It's a valuable resource for understanding the fundamentals needed for hardware design. The book is particularly helpful for refreshing knowledge on components and circuit analysis. It serves as an excellent reference throughout the course and beyond.
Delves into the complexities of high-speed digital design, covering topics such as signal integrity, impedance matching, and transmission line effects. While some concepts may be beyond the scope of the course, understanding the principles discussed in this book can greatly enhance your ability to design robust and reliable PCBs. It's particularly useful for understanding the 'why' behind certain layout rules and best practices. This book is more valuable as additional reading to expand knowledge.

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