PCI Express Basics: Developing Physical Design Rules for PCIe
On-demand Web Seminar
Abstract
This webinar explores the PCI Express (PCIe) specification and how physical design elements of PCIe impact electrical performance. Topics covered Include how to use HyperLynx to generate design rules for routing and routing considerations for successful design of interfaces that conform to the PCI Express specification.
Duration: 40:45
Opens in New Window/External URL
Tags
Details
Overview
Did you know that there are well over 30 electrical design requirements identified by the PCI Express (PCIe) specification? Ensuring design robustness requires careful planning, and a thorough understanding of your design's electrical behavior. This webinar looks at the some of the most critical electrical performance requirements that PCB designs must meet to comply with the standards for the PCIe Gen1 and Gen2 specification. We will also highlight what’s to come in Gen3.
We’ll explore some of the key physical design elements that impact electrical performance, such as: trace geometries, vias, and reference plane discontinuities using HyperLynx SI and PI in both the time and frequency domain. These will help you better understand the principles needed to successfully develop a PCIe interface.
What You Will Learn
- Electrical design requirements for PCIe Gen1, Gen2, & Gen3
- How to use HyperLynx to generate physical design rules for routing
- Routing considerations for successful design of PCIe interfaces
Who Should Attend
- Hardware engineers working on PCIe designs
- Signal Integrity engineers developing routing constraints
- PCIe Card and System designers
About the Presenter
Steve McKinney
Steven McKinney is a business development manager for Mentor Graphic's Board System Division where he supports Mentor's PCB analysis technologies which include tools for Signal Integrity, Power Integrity, Thermal and EMC design. Steven has previously held roles in technical marketing at Mentor Graphics, specializing in signal integrity and EMC analysis tools and educating the engineering community on signal integrity, power integrity, and EMC design issues. Prior to working for Mentor, Steven was a signal integrity engineer at Dell Computer developing server hardware. Steven received his BSEE and MSEE from North Carolina State University.
Related Resources
Multimedia
3D modeling methods in SERDES Designs: Is via behavior causing your SERDES designs to fail?
Learn how to evaluate vias through 3D EM Simulation and Post-Route Verification to validate via behavior and its effects on multi-gigabit channels.…View On-demand Web Seminar
Analyze and Stop Via Coupling Noise
Learn the causes of noise from via coupling through power planes, how to simulate the interaction of vias and power planes and discover quality design practices for single ended vias.…View On-demand Web Seminar
PCB Crosstalk Fundamentals - What It Is and How You Can Prevent It
Crosstalk is an abstract concept that can cause very real design failures, which can be difficult to reproduce, debug, and resolve. You will learn the basics of PCB crosstalk, including terminology, mathematical...…View On-demand Web Seminar
Other Related Resources
High Speed PCB Layout: Physical Design Issues of Highspeed Interfaces
White Paper: Moore’s law, applied to data rates, has pushed PCB circuits so fast that the layout becomes part of the circuit. In designs such as DDR3 and PCIe, the fastest memory and high-speed serial performance...…View White Paper
Understanding Via Effects
White Paper: As the demand for fast computation and information transmission has increased dramatically in recent years, many designs have boards with signals operating in the multiple-Gbps range. Advanced memory designs...…View White Paper
Analyzing Crosstalk's Impact on BER Performance: Methods and Solutions
White Paper: This paper discusses two major issues associated with channel crosstalk that have not been fully addressed previously: models from measurements and algorithms for BER prediction. It presents a practical...…View White Paper
