PRIMARY COURSE TOPICS
You will learn how to simulate advanced power integrity effects on your PCB and fix them early in the design cycle.
Hands-on lab exercises will reinforce lecture and discussion topics under the guidance of our industry-expert instructors.
What You’ll Learn
- Create and simulate a Power Distribution Network (PDN) in the Hybrid Solver
- Create time-efficient Hybrid Solver setup to boost productivity and maintain accuracy
- Perform PDN sweep analysis using the 3D Explorer
- Include on-package and/or on-die decoupling models in decoupling analysis
- Perform the PDN Decoupling Optimizer flow
- Setup decoupling capacitor libraries for PDN Decoupling Optimizer and learn the model syntax
- Extract PDN and signal nets models
- Perform time domain power-aware analysis in BoardSim and LineSim.
- Run PI/Thermal Co-simulation and perform thermal what-if analysis
Throughout this course, extensive hands-on lab exercises provide you with practical experience using HyperLynx SI/PI and Advanced Solvers software. Hands-on lab topics include:
- Using the Hybrid Solver to explore fast sweep options and efficiently distribute solver frequency points for decoupling analysis
- Use the 3D Explorer to optimize decoupling capacitor placement
- Set up the PDN optimizer for analysis to assess whether the baseline PDN is capable of producing a solution
- Run the PDN Decoupling Optimizer expert system and limit the library scope to produce design guideline friendly solutions
- Run the PDN Decoupling Optimizer Genetic Algorithm to produce multiple design candidates
- Execute the PDN Decoupling Optimizer while including on-package and/or on-die decoupling models
- Model non-ideal return paths in SI analysis using the 2D Field Solver and the Model Extractor
- Create PDN models in LineSim for pre-layout power-aware analysis using the Advanced Decoupling Wizard
- Perform PI/Thermal co-simulation and explore the impact of the thermal performance of the board on DC drop analysis and vice versa