Design Force Advance - Power Integrity

PCB-level EMI and Power Supply System Analysis

Fast estimation of worst-case emission capabilities of the PCB
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Design Force PI/EMI Advance

Design Force PI/EMI Advance provides powerful capabilities for PCB-level EMI and Power Supply System Analysis. It offers a fast estimation of worst-case electromagnetic emissions, taking into account the PCB, attached cables, and heatsinks, covering both Common-Mode and Differential Mode emissions.

PCB-level EMI and power supply system analysis

Fast estimation of worst-case electromagnetic emissions

DC analysis for detailed assessment of voltage and current distributions

EMI and Power Integrity Analysis Tools

Incorporate our EMI and Power Integrity Analysis tools into your electronics engineering workflow and equip yourself with the insights needed to optimize your designs for reliability and compliance.

EMI Analysis

Comprehensive EMI Screening

Our EMI analysis tool offers a comprehensive examination of your electronic system, identifying major EMI sources efficiently and rapidly.

Mode Emissions Evaluation

Evaluate both common mode and differential mode emissions to gain insights into signal propagation throughout the system.

I/O Crosstalk Visualization

Visualize areas where I/O crosstalk occurs, enabling precise pinpointing of potential interference zones.

External Antenna Mechanisms

Consider various external antenna mechanisms that might impact your system’s EMI, ensuring a holistic approach to interference management.

Power Integrity Analysis (AC)

Design-Force-Advance-PI-Wideband-Analysis

Wideband PI-Analysis

Our tool provides wideband Power Integrity Analysis of supply systems up to 10 GHz, uncovering high AC-impedance regions and potential resonances’ root causes. Avoiding high resonance peaks will improve the EMC behaviour also.

Decap Efficiency Assessment

Evaluate the efficiency of decoupling capacitors (Decaps) and visualize the impact of mounting inductances. Understand the performance of your Decaps (placement, connection inductance or wrong values of the decaps)

Virtual Decaps for Planning

Define virtual Decaps and place them virtually on your board for what-if scenarios, optimizing decoupling strategies and ensuring readiness for unforeseen challenges.

Power Integrity Analysis (DC)

Voltage Drops and Current Load

Perform DC-Analysis to identify IR-drop situations and regions with a high current load, providing insights into the power delivery system performance.

Insufficient Supply Voltage Identification

Identify areas where IC power pins receive insufficient supply voltages, preventing potential performance issues.

Design-Force-Advance-PI-Insufficient-Supply-Voltage

DC-Resistance Analysis

Extract DC-resistances between power pins to assess the efficiency of your power delivery network and allows to check IC vendor requirements for the connection from source to the sinks

What-If Scenarios

Explore what-if scenarios by driving the supply system with alternative voltage sources, making your design adaptable to changing conditions.

Stressed Via Recognition

Recognize stressed vias under high DC-current loads, ensuring the reliability of your power delivery network. Cross-probing into the CR-8000 design canvas allows a straight-forward identification of problematic vias facing the risk of fusing.

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