fiXtress®:
Automated Derating Analysis and MTBF Prediction Tool for Board & Multi-Board Design
Key Features:
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Comprehensive Electrical Stress Analysis: Performs in-depth component electrical stress derating analysis for single or multi-board systems.
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Temperature Prediction: Estimates PCB temperature rise due to IC heat generation, providing accurate data for stress derating and thermal management.
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EOS Violation Detection: Detects all Electrical Over-Stress (EOS) violations with Pareto, over-stress, and over-design reports, and offers actionable recommendations.
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MTBF Prediction: Provides a realistic estimate of Mean Time Between Failures (MTBF) based on real electrical and thermal stresses, with prediction capabilities for various standards.
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Derating Graphs Manager: Includes ready-to-use derating standards and allows users to define custom derating guidelines to fit specific design needs.
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Extensive Component Library: Features an AI-assisted library manager with auto-filled parameters and access to millions of components, streamlining component selection.
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Automatic Reliability Data Integration: Seamlessly integrates reliability data with other RAMS analyses (FMECA, FTA, RBD, MTTR, and Logistics) for a comprehensive view of system reliability.
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Powerful and User-Friendly: Utilizes AI-powered simulation modules for fast, precise, and reliable design analysis.
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Seamless Integration: Functions as an add-on for any Electronic Design Automation (EDA) tool, compatible with popular E-CAD software for in-workflow analysis.
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Overcoming SPICE Limitations: Analyzes large, complex PCBs with thousands of components, providing consistent results using public data sheets, and handling what SPICE tools may struggle with.
Benefits:
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Gain System-wide Insights: Access comprehensive MTBF and life expectancy data, detect components with low reliability and identify critical overstressed parts.
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Optimize Component Selection: Improve your component rating choices before layout, minimizing design iterations.
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Conduct User-Friendly Analyses: Easily perform "what-if" analyses to adapt products for various environments.
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Save Time: Automate processes and streamline workflows for significant time savings.
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Enhance Durability: Ensure your electronics last longer and operate reliably.
How It Works:
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Electrical Stress Analysis: fiXtress® conducts electrical stress analysis on components within your circuit design to perform component de-rating.
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Reliability Prediction: It uses electrical stress input to predict MTBF, ensuring realistic MTBF and robust system reliability.
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Thermal Optimization: Calculates board self-heating by considering component power dissipation and thermal resistance.
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Comprehensive Data Storage: Stores component-rated values and thermal resistance data in an extensive library for thermal simulation and future use.
Take a Closer Look at
fiXtress®
A Closer Look at fiXtress®:
Key Features
Parts Derating Analysis
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Identifies over-stressed and over-designed components.
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Utilizes an ECAD Plug-In for quick stress assignment.
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Automates the process, optimizing component selection for reliability and cost-effectiveness.
Mini Thermal Anakysis – Average PCB Heating
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Estimates average PCB temperature rise for accurate stress derating.
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Enables optimal component placement before PCB layout.
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Prevents overdesign or overstress with early thermal analysis.
Predict MTBF with Confidence
Our MTBF (Mean Time Between Failures) prediction capabilities adhere to the following industry standards:
• MIL-HDBK 217F2 / G: Provides reliability prediction guidelines for electronic equipment.
• MIL-HDBK 217F2 with VITA 51.1: An extension of MIL-HDBK 217F2, incorporating specific reliability predictions for electronic equipment as per VITA 51.1.
• FIDES 2009, FIDES 2022: Offers reliability methodologies for electronic systems. FIDES 2022 includes:
o More realistic failure rate values for modern components.
o New package categories for integrated circuits (ICs).
o Added classifications X5R and X7R for Type-2 ceramic capacitors.
• Models for plastic film capacitors.
• IEC 62380: Provides a universal model for reliability prediction of electronic components, PCBs, and equipment.
• IEC 61709: Details reference conditions for failure rates and stress models used in reliability predictions.
• Telcordia: Offers reliability prediction procedures specifically for electronic equipment.
• HDBK GJB299: The reliability prediction handbook for electronic equipment.
• SN 29500: Provides expected failure rate values and dependability metrics for components.
• HRD 5: The Handbook of Reliability Data for Electronic Components.
• NSWC: Handbook of reliability prediction procedures for mechanical equipment.
These standards ensure our predictions are based on the most accurate and comprehensive methodologies available.
Realistic MTBF Prediction
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Provides a realistic estimate of the mean time to product failure.
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Calculates accurate MTBF based on real electrical and thermal stresses.
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Supports multiple industry standards for MTBF prediction.
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Predicts Mean Time Between Failures (MTBF) using industry-standard methodologies (MIL-HDBK 217F2, Telcordia 3, FIDES 2022, IEC 62380, and more).
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Easy import of product tree from CAD systems, quick access to component parameters, and part number libraries.
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Comprehensive analysis, including failure rates, service life, and environmental considerations.
ECAD Plug-In
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Serves as an add-on for major EDA tools like Altium, Mentor, OrCad.
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Improves design robustness by detecting errors in the schematic phase.
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Streamlines the design process and accelerates time to market.
Benefits
Ready-to-Use Derating Standards
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Utilize predefined derating standards for quick analysis.
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Define custom derating standards to meet specific requirements.
Unique Thermal Analysis
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Estimates average temperature rise over the cold-plate for accurate stress derating.
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Prevents unexpected breakdowns by keeping components within safe temperature limits.
Automated Processes
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Automates component stress and derating analysis, saving valuable time.
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Provides automated design error detection, optimizing component selection and reliability.
Comprehensive Error Detection
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Detects all Electrical Over Stress (EOS) violations using Pareto, over-stress, and over-design reports.
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Ensures adherence to derating guidelines for optimal component selection.
Seamless Integration
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Works as an add-on for any EDA tool, offering a reliable crystal ball for electronic reliability.
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Supports easy import/export of data from various sources, maintaining data traceability.
Industry Compliance
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Supports a range of industry standards for derating and MTBF prediction.
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Ensures your design follows best practices and industry guidelines.
How fiXtress® Works
Automated Derating Analysis
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Automates the process of assessing stress levels for electronic components.
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Utilizes Plug-Ins for major E-CADs (Altium, Mentor, OrCad) for easy Bill Of Materials (BOM) import.
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Offers both semi-automatic stress assignment and logical stress calculations for an incomplete design.
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Customizable derating guidelines based on industry standards or your company’s practice.
ECAD Integration
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Serves as an add-on for Electronic Design Automation (EDA) tools like Altium, OrCad, and Mentor.
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Improves design robustness by detecting errors during the schematic phase.
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Streamlines the design process, accelerating time to market.
Early Thermal Assessment
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Estimates board temperature increase before PCB layout, crucial for optimal component size selection.
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Provides a Mini Thermal Analysis module, calculating average temperature rise over the cold-plate for accurate stress derating.
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Enables effective design changes and prevents overdesign or overstress in the final product.
Comprehensive Reliability Solution:
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Offers a suite of modules, including Component Derating, Realistic MTBF Prediction, Mini Thermal, Rapid Stress Assignment, ECAD Plug-In, and Cloud MTBF.
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Allows users to define derating standards, detect EOS violations, and perform a failure Pareto analysis.
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Drives reliability data automatically to all RAMS analyses, ensuring a thorough assessment for better design.