System Level Signal and Power Integrity Domain Certification Training
Date | Version | Country | Location | |
---|---|---|---|---|
Scheduled upon demandOn demand | EXPRESS INTERESTINQUIRE |
Version | Region | |
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2024.1 | Online | ENROLL |
Other Versions | Online | EXPRESS INTERESTINQUIRE |
Length: 11.5 Days (92 hours)
Course Description
Become Cadence-certified in the system-level signal and power integrity design domain by taking a curated series of our online courses and passing the badge exams for each class.
- First, you will utilize Sigrity Aurora to develop design rules for high-speed designs and leverage the benefits of performing pre-layout analysis with preliminary analysis on a design.
- Then, you will learn about the fundamentals of power integrity design with the Sigrity PowerDC and OptimizePI course.
- You will then refine your understanding of power integrity design by incorporating thermal effects into your design with the Celsius Thermal Solver course. This course will also review CFD simulations necessary for viewing the thermal effects when using a fan and a chassis to cool a system and how that affects the voltage margins on a design.
- Next, you will use Sigrity SystemSI to perform parallel bus and serial link analysis using a block-level modeling approach. The block-level approach is useful for both pre-route and post-route simulations.
- You will then dive deeper into signal integrity by using the Clarity 3D Solver tool to model and simulate designs in 3D, providing higher accuracy for critical design structures.
- Lastly, you will extract S-parameters of a design using PowerSI for various topologies, including a parallel bus and a serial link. This course will also guide you in creating several SPICE models for various components and interfaces with the Broadband SPICE tool.
Learning Objectives
After completing this course, you will be able to:
- Create, extract and explore topologies
- Run solution space analysis
- Create an electrical constraint set
- Apply constraints to drive placement and routing
- Analyze nets on the routed board design for signal integrity
- Use the Workflow manager to analyze impedance, crosstalk and IR Drop on a PCB
- Set up a board database for analysis
- Perform static IR Drop analysis on a routed board
- Perform an electrical and thermal co-simulation
- Graph the impedance of the power distribution network across a complete frequency bandwidth
- Assign capacitor models to an existing printed circuit board
- Create and edit capacitor models
- Optimize capacitor selection for performance and cost
- Import PCB and IC packaging data in Celsius Thermal Solver
- Create boundary conditions and set up VRMs and sink components for an electrical and thermal co-simulation
- Run a static E/T co-simulation and view the resulting tables and graphs
- Run a transient E/T co-simulation and view the resulting tables and graphs
- Build a 3D heatsink
- Import and export components for projects
- Set parameters and run sweep simulations
- Import PCB and IC package layered structures
- Run a CFD flow for thermal analysis of a PCB with a chassis and fans
- Build block-level topologies of pre- and post-routed parallel bus systems and serial link systems
- Generate a W-Element transmission line model to represent the pre-routed parallel bus or serial link interfaces
- Assign electrical models to the blocks of parallel bus or serial link systems
- Connect blocks of the systems using the model connection protocol
- Set up analysis options for circuit/channel simulations
- Set voltage and current probe points
- Sweep key design parameters defined in the electrical models of interconnects and various components
- Run simulations of pre-routed and post-routed power aware parallel bus systems
- Run simulations of serial link systems with AMI and IBIS models
- View simulation-generated plots and graphs
- Generate simulation-based reports
- Analyze simulation-based results to evaluate the power and signal integrity performance of the design
- Explore the effects of cross talk on a serial-link channel
- Apply a systematic process to resolve issues that may arise when using the SystemSI tool
- Import PCB and interposer models into Clarity 3D Layout
- Specify a cut-out region for a PCB
- Generate ports for simulation
- Set up the simulator by controlling frequency settings, solver settings and geometry options
- Run 3D electromagnetic simulations
- View and plot the waveform, mesh and field results
- Import 3D STEP models into Clarity 3D Workbench
- Create components in Clarity 3D Workbench
- Merge 3D models with a PCB
- Run 3D electromagnetic simulations of the merged 3D model and PCB
- Automate portions of the design process with Tcl
- Generate electrical models (S-parameters and SPICE equivalent circuits) of pre- and post-routed high-speed interfaces on PCBs and IC packages
- Perform detailed frequency domain analysis for evaluating the power and signal integrity performance of those interfaces
Software Used in This Course
This certification program contains several courses, each with its own software requirements. Refer to each of the course links provided in the course description and course contents for the specifics.
Software Release(s)
Each course URL contains the software release information for that course.
Modules in this Course
Audience
- Signal Integrity Engineers
- Power Integrity Engineers
- Hardware Design Engineers
- Electrical Engineers
- PCB and IC Package Design Engineers
- Design Layout Engineers
Prerequisites
You must have experience with or knowledge of the following:
- Digital and analog circuit design methodology
- PCB signal analysis and transmission line theory
- Basic PCB and IC packaging concepts
- Basic Signal and Power Integrity knowledge
- Basic knowledge of 3D electromagnetic simulation
Related Courses
Course ID: 86400