Design and Simulation of High-Speed Digital
Agilent tools provide views into the time and frequency domains, revealing the underlying problems and ensuring compliant designs. With Agilent, you'll achieve your best design.
High Speed Digital Design Challenges
- Analyzing complete chip-to-chip links by co-simulating individual components, each at its most appropriate level of abstraction: channel-, circuit- or physical-level
- Importing backplane S-parameter models accurately into circuit and channel simulations, avoiding causality and passivity issues
- Correlating measured and simulated data before using simulation to interpolate between measurement planes and extrapolating to virtual prototypes
What's New
- ClioSoft Announces the Integration of SOS Design Data Management with Advanced Design System
- Agilent Technologies and SiSoft Introduce Pre-Standard IBIS-AMI Modeling Guide
- Agilent Technologies to Demonstrate Newest High-Speed Digital Design and Test Solutions at DesignCon
- Electrical Redriver Modeling Solution to Solve Key Challenges in Designing Chip-to-Chip Links
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1-25 of 26
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8 Hints for Debugging and Validating High-speed Buses
8 Hints for Debugging High-speed Buses
Application Note 2002-03-05 |
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DDR4 TdiVW/VdiVW Bit Error Rate Measurement or Understanding Bit Error Rate
Importance of making BER measurement calculations to form a statistical measurement of total jitter to understand the design's data valid window result and design error rates.
Application Note 2013-01-24 |
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Designing and Validating High-Speed Memory Buses (AN 1382-2)
DDR SDRAM (double data rate synchronous dynamic random access memory) is quickly becoming an accepted technology in the PC (personal computer) industry. Its low cost, high performance, and increasingly wide availability make it very desirable for PC memory buses and embedded designs such as high...
Application Note 2001-12-20 |
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Designing High Speed Backplanes Utilizing Physical Layer Test System
This Application Note focuses on the problems introduced into the backplane assembly design by the many linear passive components that create reflections due to impedance discontinuities.
Application Note 2006-01-18 |
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Effective Reflection Characterization for Active Devices Using ENA Option TDR Application Note
This application note describes Hot TDR measurement, which is an effective characterization method for the reflection of transmitter and receiver.
Application Note 2012-01-12 |
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Explore the SERDES Design Space Using the IBIS AMI Channel Simulation Flow
Simulation of modern chip-to-chip links requires you abandon the SPICE-based approach and adopt a new approach based on an IBIS AMI channel simulation flow.
Application Note 2012-09-21 |
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Frequency Domain Analysis of Jitter Amplification in Clock Channels
Clock channel jitter amplification factor in terms of transfer function or S-parameters is derived. Amplification is shown to arise from smaller attenuation in jitter lower sideband than in the fundamental. Amplification scaling with loss is obtained.
Application Note 2012-11-01 |
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High-Speed Source Synchronous Interface Design
presents considerations for high-speed interface design using examples from a DDRSDRAM implementation.
Application Note 2001-08-02 |
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Jitter Analysis Techniques for High Data Rates (AN 1432)
This new application note describes the basic jitter measurements and the specific measurement techniques used in SONet/SDH/OTN and Gigabit Ethernet applications.
Application Note 2003-02-03 |
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Limitations and Accuracies of Time and Frequency Domain Analysis of Physical Layer Devices
Application Note 2005-11-01 |
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Measuring Jitter in Digital Systems (AN 1448-1)
Measuring jitter and how to calculate total jitter.
Application Note 2008-01-30 |
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On-Chip Design Verification with Xilinx FPGAs
Xilinx Virtex-II Pro devices have redefined FPGAs.
Application Note 2003-04-30 |
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Power Toolbox for Embedded System Designs
Properly Powering On and Off Multiple Power Inputs in Embedded Designs
Application Note 2009-06-01 |
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S-parameter Series: Using De-embedding Tools for Virtual Probing Application Note
Discusses using de-embedding tools to gain virtual access to difficult measurement points
Application Note 2012-03-11 |
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S-Parameter Techniques for Faster, More Accurate Network Design (AN 95-1)
This Application Note is for information only. Agilent no longer sells or supports these products.
Application Note 1967-02-01 |
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Signal Integrity Analysis Series Part 1: Single-Port TDR, TDR/TDT, & 2-Port TDR
This Application Note focuses on part 1: those which use a single-port TDR, those which use TDR/TDT, and those which use 2-port TDR.
Application Note 2007-01-01 |
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Signal Integrity Analysis Series Part 2: 4-Port TDR/VNA/PLTS
This Application Note focuses on part 2: those which use a 4-port TDR/VNA/PLTS.
Application Note 2007-02-21 |
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Signal Integrity Analysis Series Part 3: The ABCs of De-Embedding
This Application Note focuses on Part 3: The ABCs of De-Embedding explaining different de-embedding techniques & shows how to minimize fixture effects for best results.
Application Note 2007-07-01 |
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Simulating FPGA Power Integrity Using S-Parameter Models
This application note describes how self-impedance (frequency) can easily be determined by simulating the frequency domain self-impedance profile of a Power Distribution Network (PDN).
Application Note 2012-04-02 |
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Simulating High-Speed Serial Channels with IBIS-AMI Models
This paper reviews some of the benefits and limitations of using IBIS models and introduces the new AMI extensions to the latest IBIS version 5.0 specification.
Application Note 2011-11-15 |
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Spectrum Analysis Application Notes
Download a copy of AN150, both high and low resolution PDF's are available.
Application Note 2004-04-27 |
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Understanding Signal Integrity
This is a technical note that was featured in the AMS Newsletter, Volume 1, Issue 2. This technical note discusses the problems that engineers have with signal integrity and solutions to help address the problems.
Application Note 2002-04-18 |
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Understanding the Kramers-Kronig Relation Using A Pictorial Proof
The Kramers-Kronig relation lets us build a causal time-domain model from bandlimited s-parameters. This pictorial proof aids understanding of the physics of causality and hence the validity of this approach.
Application Note 2010-03-31 |
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Using ADS for Signal Integrity Optimization
This white paper shows how to replace a multi-dimensional sweep of a long running PRBS time-domain simulation (including manual data evaluation) by short, channel-pulse characterization in the Advanced Design System to efficiently optimize a channel.
Application Note 2009-10-19 |
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Using Clock Jitter Analysis to Reduce BER in Serial Data Applications
This Application Note emphasizes on the emerging techniques for reference clock jitter analysis from the perspective of oscillator physics, phase noise theory, and serial data technology.
Application Note 2006-12-01 |
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