Sigrity SystemSI Technology

October 17, 2018

Share this Flipbook
Facebook
Twitter
Email
LinkedIn

Cadence® Sigrity™ SystemSI™ signal integrity (SI) solutions provide a comprehensive and flexible SI analysis environment for accurately assessing high-speed, chip-to-chip system designs. A block-based editor makes it easy to get started. The solutions support industry-standard model formats and automatically connect the models. With a unique combination of frequency domain, time domain, and statistical analysis techniques, you can be confident of achieving robust parallel bus and serial link interface implementations.

Previous Flipbook

Sigrity Xtractim

Using models created with XtractIM, you can quickly assess package electrical characteristics and perform s...

Next Flipbook

Sigrity PowerSI

The Cadence® Sigrity™ PowerSI® environment provides fast and accurate full-wave electrical analysis of lead...

Solving Common Issues in High-Speed Design

First Name

Last Name

Location

State

Opt-in to future emails and I understand I can unsubscribe at any time.

I agree to the terms of use*

*required
Terms of Use

Thank you!

Access Your eBook

Error - something went wrong!

Other content in this Stream

PCB Via Placement in High-Speed Designs

Sigrity SystemSI Technology

Previous Flipbook

Next Flipbook

Other content in this Stream

Via placement in high-speed designs need careful consideration to ensure that the board performs as expected, and we have some ideas that can help you.

Noise margins in CMOS inverters is a standard of design margins to establish proper circuit functionality under specific conditions.

A Colpitts oscillator’s functionality permits its use as a VFO, such as in a superheterodyne receiver or even a spectrum analyzer, if utilizing a variable inductor.

The effect of noise margin parameters is critical to the functionality of ADSL connectivity.

Quickly and easily identify signal integrity issues with various tools to improve design performance.

Knowing and applying the types of FEA analysis discussed in this blog will improve your design’s manufacturability and reliability.

Thermomechanical Analysis for Your Thermally Cycled PCB Designs | Advanced PCB Design Blog | Cadence

WiFi printed circuit board technology from the beginning up to present day

Learn how you can tackle high-speed and high-frequency PCB designs

Your design data can be used in simulations to manage PDN impedance. Here’s how this works in PSpice from Cadence.

What’s the difference between power spectrum vs power spectral density? Here’s how these important concepts relate to your signals.

Analog signals can contain undesired harmonic components, but harmonic termination can be used to remove undesired frequency components.

Forward and reverse biasing gives a circuit designer optimal control over a diode's functionality.

You can optimize your signal chain to receive and transmit maximum peak envelope power with the right circuit simulator.

A purely resistive circuit is a circuit that has inductance so small that at its typical frequency, its reactance is insignificant.

There are several keys to laying out a successful multilayer design. Here’s more information on one of those, a board layer stackup to manage power planes.

Coupled loads analysis is critical for assessing reliability of spacecraft. Here’s how the results can be used in PCB design.

Verify your component choices with probabilistic design for reliability. You can use this technique to determine chances of failure in your next PCB.

Clocks are essential gatekeepers of the digital domain. Setting the pace for all that follows the clock can be a single trace or a partnership of two traces that carry complementary signals.

You see, it’s like this. When two circuits love each other very much, they form a life-long bond and then little Diffs are propagated. Not really, but when we peruse the net names attached to the...