Select and configure from 36 rules in 6 categories
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EMC Adviser EX
Are you looking for a tool that enables you to meet the EMC requirements for your products? Then EMC Adviser EX is exactly the right solution for you! Using EMC Adviser speeds up the identification of EMC issues in an early design phase with reduced effort compared to manual checks.
Cross-probe and highlight within the design
Create summary reports and share as MS-Excel documents
With EMC Adviser for CR-8000, the circuit engineer is able to categorize EMC-relevant signals early-on in the schematic phase. The appropriate EMC rules are selected for the application and applied during the design phase, such as a DRC check.
EMC Adviser’s guidelines provide design issue recommendations, enabling non-expert users to solve Signal Integrity, Power Integrity, and EMC issues. Users can choose and configure from 36 rules in 6 categories, generate check results, cross-select, and highlight within the PCB layout, and create summary reports.
Summary reports with images and progress status can be shared as MS-Excel documents between the members of the development team. There is no need for any additional software to verify the identified EMC issues.
Rule categories and checks
- Are there any closed loops in my design?
- Are there any unintended open critical loops?
- Does any long track act as antenna?
- Are there any isolated copper shapes?
- Are any high-speed signals routed close to the edges of reference planes?
- Are there enough Vias spent along copper shapes to avoid effective antennas?
- Is there a potential to create current loops within copper shapes?
- How is the coverage of shielded signals?
- Is there any vertical shielding in Z-axis?
- Is any shielding missing in 4 directions (left/right/above/below)?
- Is the shield continued across Vias?
- How is the shielding coverage of defined net groups?
- How is the ground coverage beneath a component?
- Is the return path too far away from my high-speed signal?
- Are there any areas with high Via density? Identify cutouts and gaps caused by overlapping anti-pads.
- Is there a unique reference signal assigned to the high-speed signal?
- Is the lowest inductance path used for return currents between the boards? (Multi-board)
- Is there any impedance mismatch in critical signals?
- Is it necessary to add a specific termination to the high-speed signal?
- Find all 90-degree corners in my design
- Check all signals for critical line length
- How is the routing quality of differential signals?
- How large is the track capacitance? Is the maximum capacitive load exceeded?
- Check for crosstalk between active and passive signals
- Check for crosstalk between active signals and power nets
- How effective are the used EMC components?
- Is a signal marked for ground prohibition close to a ground net (same layer or adjacent layer)?
- How strong is the noise coupling between multiple boards? (Multiboard)
- Are Decaps too far away from the IC power pin?
- Are there any overlapping power planes that acts as noise bridges?
- Are any connectors affected by high-speed signals running over gaps?
- Are there any high-speed signals routed near a Via of a power net connected to a connector?
- Check the track width and number of Vias between the pin pairs
- How good is connection path length of used ESD components?
Related Webinars
- Webinar
August 13, 2021
Solving LPDDR4 Technology Design Challenges
In this presentation you will be introduced to the necessary steps in constraining and validation of LPDDR4 on the basis of a real design realized in CR-8000 Design Force right first time.
Watch Now
- Webinar
September 14, 2020
EMC for PCB Designers
In this presentation, an EMC minded PCB design approach is presented, allowing designers to understand which EMC rules will apply to PCB projects and how EMC analysis capabilities can be utilized in the CAD flow to reduce the risk of EMC compliance failure once the board is manufactured.
Read now
- Webinar
July 06, 2020
Practical Signal Integrity for improved EMI Control in PCB Design
In our webinar we will provide an introduction to the challenges of signal integrity and the underlying physical effects. This will provide the basis for practical tips to address the related challenges during PCB design.
WATCH NOW
EMC Adviser EX can be launched from these products
- Products
October 01, 2018
Design Force
CR-8000 Design Force is the fastest, most effective PCB design solution available today. Design Force enables design teams to layout and verify their designs in the context of a complete system or product.
Read now
3D Multi-board PCB Design
- Products
January 03, 2019
Design Force Advanced Packaging
Design Force offers an intuitive, integrated environment for designing single and multi-die packages for wire-bond, flip-chip, and high density advanced packaging.
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IC Package and PCB Co-design
Recent EMC Adviser EX Blog Posts
- Blog
April 08, 2021
EMC for PCB design: anything but black magic
EMC problems are often responsible for re-design cycles in PCB design practice. Due to ever shorter innovation cycles of for example cell phones or IoT applications, such as fitness trackers or smartwatches, and many other electronic products, these time-consuming re-design cycles should be avoided under all circumstances.
Read now
- Blog
February 28, 2019
Inside Signal Integrity: Impedance Control - Part 2
In part 1 of this blog we took a back-to-basics approach and discussed line impedance and its effects in signal integrity. As every electrical conductor comprises capacitance, an inductance, and a frequency-dependent ohmic resistance, and with increasing frequencies, these electrical characteristics will influence and distort the signal.
Read now
- Blog
February 21, 2019
Inside Signal Integrity: Impedance Control - Part 1
Impedance and impedance control are some of the oldest and most discussed topics in PCB design. They are especially important in high-speed design related to signal integrity. In this, the first of a two-part blog, we’ll go back to the basics of impedance/impedance control and consider what influences line impedance. In part two, we’ll set about controlling it.
Read now