Professional PCB Design & Embedded Hardware Engineering
This comprehensive course transforms learners into professional PCB engineers. Students master schematic capture, multi-layer PCB layout, and manufacturing preparation to design production-ready boards for embedded systems built around Raspberry Pi, STM32, and ESP platforms.
Key Learning Outcomes
Students will learn to:
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- Create hierarchical, multi-sheet schematics for mixed-signal systems
- Design multi-layer PCBs with signal integrity and impedance awareness
- Run ERC/DRC checks and prepare boards for manufacturing
- Generate Gerber files, BOMs, assembly drawings, and pick-place data
- Optimize power distribution and decoupling strategies
- Build component libraries with accurate footprints and 3D models
Tools & Platforms
- KiCad / Altium Designer for schematic and layout
- Raspberry Pi, STMicroelectronics STM32, and ESP-based reference designs
- IPC footprint standards and stackup calculation tool
Topics Covered
Schematic Capture
- Mixed-signal design practices
- Net classes, power symbols, hierarchical sheets
- Library and footprint creation
PCB Layout Fundamentals
- Layer stack-up planning
- Trace routing, vias, copper pours
- Ground planes and return paths
High-Speed & Signal Integrity
- Differential pairs and length matching
- Crosstalk mitigation
- Impedance concepts and routing discipline
Power Integrity
- PDN basics and decoupling placement
- Voltage regulators and thermal considerations
Manufacturing Preparation
- IPC standards and fabrication drawings
- DFM/DFA checklists
- Gerber generation and panelization
Testing & Debug Support
- Test points and probing access
- Preparation for in-circuit and flying probe tests
- Age Group: 15–18 years
- Duration: 1.5 months
- Mode: MicroPython programming on ESP32 (software-focused IoT development)
Major Projects (10+ Board Designs)
- Raspberry Pi GPIO Expander Shield (custom HAT)
- STM32 3-Phase BLDC Motor Driver with current sensing
- ESP32 Multi-Sensor IoT Node with battery section
- 4-Layer Audio DAC board with careful routing discipline
- Drone Flight Controller with IMU and ESC interfaces
- USB-C Power Delivery educational board
- CAN Bus Industrial Controller with isolation concepts
- RF Beacon Tracker with PCB antenna basics
- Automotive-style Sensor Board with protection features
- Multi-Protocol Debug Board (JTAG, SWD, UART)
Course Details
- Age Group: 16+ years
- Duration: 3 Months
- Schedule: 4 Classes per week
- Mode: Complete PCB workflow from schematic to fabrication files
Teaching Methodology
- Design reviews with DFM/DFA feedback
- Gradual complexity: 2-layer → 4-layer → advanced routing cases
- Prototype fabrication with partner PCB manufacturers
- Reverse-engineering discussions of commercial boards
- Portfolio creation with professional manufacturing outputs
Prerequisites
Electronics fundamentals and basic microcontroller knowledge recommended.
Additional Resources
- IPC-7351 footprint reference guides
- Stack-up and impedance calculation references
- PCB manufacturer DFM guidelines
- Example teardowns of commercial electronics for learning
Outcome & Benefits
By the end of this course, students will produce professional PCB design portfolios including schematics, layouts, Gerbers, and assembled prototypes.
These skills prepare them for:
These skills prepare them for:
- Embedded systems and hardware engineering roles
- IoT product development and prototyping
- Electronics manufacturing and design services
- Advanced robotics and control hardware development
Key Highlights
Project Based Learning
Real World Project
Comprehensive Curriculum
Expert Instructors
6 Steps to your Course Path
Build Industry-Ready PCB Design & Hardware Engineering Skills
At Vctroid, students gain practical expertise in professional PCB design and embedded hardware development through hands-on learning and real-world engineering projects. This course trains learners to design complete electronic systems — from schematic creation to multi-layer PCB layout and manufacturing-ready outputs. Using industry-standard tools like KiCad and Altium Designer, students work on advanced boards based on Raspberry Pi, STM32, and ESP platforms. With a strong focus on signal integrity, power management, and production workflows, learners develop the technical confidence required for modern electronics, IoT, robotics, and embedded system careers.
