Corporate PCB Circuit Design with Eagle Training Course

1. Overview of PCB design process

1. Schematic capture
2. PCB layout creation
3. Design for Manufacturability (DFM) considerations
4. Design Rule Checks (DRC)

2. Importance of PCB layout optimization

1. Signal integrity and electrical performance
2. Form factor and size constraints
3. Heat dissipation and thermal management
4. Manufacturability and cost considerations

1. Software installation and setup

1. System requirements and compatibility
2. Downloading and installing software

2. Configuring preferences and settings

1. User interface customization
2. Units and grids
3. Design rules and constraints
4. Library management preferences

1. Exploring Eagle's interface and tools

1. Schematic editor overview
2. PCB layout editor overview
3. Component placement and editing tools
4. Routing tools and options
5. Design verification and analysis tools

2. Accessing and managing component libraries

1. Searching and downloading online libraries
2. Creating and editing custom component libraries
3. Managing library footprints and symbols

1. Creating schematic diagrams

1. Adding components and symbols
2. Creating connections (nets) between components
3. Using hierarchical schematics for complex designs
4. Annotating schematics with labels and references

2. Connecting components and defining nets

1. Net naming conventions
2. Power and ground symbols
3. Busses and multi-channel connections
4. Hierarchical net connections

1. Designing PCB layouts using Eagle

1. Importing components from libraries
2. Placing and arranging components for optimal routing
3. Setting design rules and constraints
4. Routing traces with proper clearances and widths

2. Placing components and routing traces

1. Manual and automatic component placement techniques
2. Single-sided vs. multi-layered PCB routing strategies
3. Via placement and management
4. Length matching and signal integrity considerations

1. Identifying and resolving design errors

1. Design Rule Check (DRC) reports
2. Electrical Rule Check (ERC) for connectivity issues
3. Visual inspection for component placement and routing errors

2. Optimizing signal integrity and minimizing interference

1. Trace width and spacing for signal strength
2. Impedance control techniques
3. Grounding and shielding strategies
4. Minimizing crosstalk and noise

1. Exporting PCB designs to Gerber format

1. Understanding Gerber file types and functions
2. Setting Gerber file generation options
3. Ensuring file compatibility with fabrication house requirements

2. Ensuring compatibility with manufacturing processes

1. Board dimensions and tolerances
2. Drill hole sizes and plating specifications
3. Surface finish and solder mask requirements

1. Obtaining quotes from fabrication vendors

1. Identifying reputable PCB fabrication houses
2. Submitting Gerber files and design specifications
3. Understanding pricing factors and lead times

2. Selecting appropriate manufacturing processes

1. Single-sided, double-sided, or multi-layered PCBs
2. Through-hole vs. Surface Mount Technology (SMT)
3. Soldering mask and silkscreen options

1. Diagnosing and resolving common PCB design issues

1. Short circuits and open connections
2. Signal integrity problems
3. Manufacturing defects
4. Assembly errors

2. Implementing strategies for efficient troubleshooting

1. Design verification and simulation techniques
2. Inspection and testing methods
3. Debugging and rework techniques