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Printed Circuit Board (PCB) Design & Hardware Engineering Training

Master Multi-Layer Schematics, High-Speed Routing, and Design for Manufacturability (DFM) Rules

4.8(1,650 students)
52 Hours
Intermediate
PCB DesignAltium DesignerKiCadSchematicsDFMMulti-Layer RoutingHardware Engineering
Printed Circuit Board (PCB) Design & Hardware Engineering Training

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Course Overview

This training program delivers complete engineering expertise in Printed Circuit Board (PCB) layout and electronic design automation (EDA). Moving systematically from core circuit fundamentals up to advanced hardware manufacturing deployment, the curriculum trains participants to transform complex structural logic schematics into production-ready physical boards. Students will gain deep exposure to component selection using active datasheets, multi-layer routing paths, plane impedance, and copper pouring strategies. Special emphasis is placed on Design for Manufacturability (DFM), Design Rule Checking (DRC), electrical simulation cross-checks, and generation of error-free industry-standard Gerber packages.

Who Should Learn

Electronics Engineers, Hardware Designers, and Embedded Systems Developers
R&D Specialists, Prototyping Technicians, and Electrical Engineering Graduates
Robotics Hobbyists and Product Designers aiming to transition loose breadboard designs into commercial hardware
Quality Assurance Analysts and Manufacturing Engineers inspecting structural circuit layouts

Prerequisites

  • Basic knowledge of electronic passive/active components (Resistors, Capacitors, Diodes, Transistors)
  • Familiarity with fundamental electrical principles such as Ohm's Law, voltage divisions, and circuit loops

Learning Outcomes

Translate raw electronic system parameters into clean, logically organized multi-sheet Schematics
Interpret component technical datasheets to construct custom, IPC-compliant landing footprints and 3D shapes
Implement strategic multi-layer stackups incorporating dedicated ground planes and power distribution paths
Execute high-density signal layouts utilizing interactive smart routing, track size formulas, and custom vias
Configure programmatic Design Rule Checking (DRC) parameters to prevent net spacing and overlap faults
Run SPICE simulations to test analog operational amplifiers and transistor-based switching networks
Generate production packages containing Gerber RS-274X/X2 files, NC drill maps, and Bill of Materials (BOM) inventories

Course Curriculum

1Module 1: Electronics Foundation & Hardware System Architecture
4 topics
  • Overview of the modern electronics industry landscape and EDA design workflows
  • Anatomy of a Printed Circuit Board: Core substrates, fiberglass matrix sheets, and copper plating prepregs
  • Analyzing board architectural pipelines: Floorplanning, logic block layout, and resource scoping
  • Introduction to major industry-standard CAD suites: Exploring Altium Designer, KiCad, and OrCAD interfaces
2Module 2: Applied Analog & Digital Component Engineering
5 topics
  • Power supply architecture: Designing linear regulators vs. high-efficiency switch-mode configurations
  • Selecting functional components: Matching voltage/current limits against system load expectations
  • Active semiconductor properties: Biasing BJTs, FETs, and power MOSFETs for structural signal handling
  • Operational Amplifiers (Op-Amps): Practical tracking configurations, calculations, and decoupling setups
  • Decoding manufacturer datasheets: Verifying mechanical packaging rules and pinout attributes
3Module 3: Schematic Capture & System Netlist Engineering
4 topics
  • Configuring the EDA workspace: Setting grid systems, structural units, and design validation rules
  • Managing enterprise libraries: Authoring schematic symbols and organizing logical multi-pin sub-components
  • Wiring schematics: Mapping junctions, power ports, off-page connectors, and component annotating indices
  • Compiling circuits: Generating system Netlists, identifying broken connection channels, and running Electrical Rule Checks (ERC)
4Module 4: Physical Board Layout Preparation & Floorplanning
4 topics
  • Executing Engineering Change Orders (ECO) to sync schematic updates into the board canvas
  • Defining structural board outlines, routing clearances, mount points, and physical keep-out zones
  • Component floorplanning: Placing critical parts based on dynamic thermal loads and clean signal directions
  • Managing footprint libraries: Mapping absolute spatial pad definitions according to standardized industry metrics
5Module 5: Advanced Multi-Layer Routing & Trace Optimization
4 topics
  • Trace parameters: Calculating path width dimensions based on current capacity and targeted thermal spikes
  • Multi-layer stacking: Designing 2-layer, 4-layer, and high-density multi-plane layer stackups
  • Routing methodologies: Manual track optimization, interactive push-shove mechanisms, and bus routing paths
  • Vias configuration: Managing standard through-hole pads, blind vias, and buried layer connection points
6Module 6: Power Integrity & Copper Pour Engineering
3 topics
  • Copper Pouring: Creating dedicated ground and power plane fills to lower circuit impedance
  • Thermal relief geometry: Designing segmented connection points to ensure reliable component soldering
  • Signal preservation tactics: Minimizing parasitic noise, avoiding loop pathways, and placing decoupling capacitors
7Module 7: Circuit Simulation, Analysis & Verification Checks
4 topics
  • Harnessing SPICE engines to evaluate analog wave outputs and transition behavior timelines
  • Running Design Rule Checks (DRC) to identify spacing violations, trace collisions, and pad clearances
  • Layout Versus Schematic (LVS) checking: Matching physical copper routes against initial logical net lists
  • Back Annotation: Synchronizing physical board pin adjustments backwards into clean schematic sets
8Module 8: Design for Manufacturability (DFM) & Production Release
5 topics
  • Configuring custom DFM criteria to accommodate manufacturing tolerances and prevent assembly failures
  • Generating production exports: Compiling Gerber RS-274X/X2 fabrication artwork arrays
  • Drill compilation: Exporting NC Drill text files, setting tooling sizes, and mapping coordinate slots
  • Solder Mask & Silkscreen configuration: Formatting layer overlays, text sizes, and component polarity markings
  • Assembling delivery documentation: Generating structural Pick-and-Place data and Bill of Materials (BOM) files

Certification

Acquire the SkillSurf Certified PCB Design Specialist designation upon successfully completing all architectural layout sandboxes and compiling a production-ready multi-layer hardware design portfolio.

Frequently Asked Questions

The training provides foundational exercises adaptable across Altium Designer, KiCad, and OrCAD. Students can select their preferred software track for the design labs, though the underlying core principles of footprints, stackups, and routing remain identical across all modern EDA software suites.
DFM is a set of design practices that ensure your board layout can be fabricated and assembled by production facilities without errors. This includes maintaining proper copper-to-copper clearances, ensuring minimal trace widths, and checking that component pads align perfectly with physical solder tolerances to avoid manufacturing defects.
The course starts with basic single- and double-sided layouts to establish foundational techniques, then advances into configuring 4-layer and multi-layer stackups. You will learn to incorporate inner power and ground planes to manage complex, high-density circuits safely.