exida - Engineering Tools - FMEDAx, ARCHx, FMEDAx Auto
 

OEMx Engineering Tools

Higher design quality, while saving time and meeting safety and cybersecurity standards.

Optimizing the design engineering process for new products involves balancing goals that normally conflict – time to market, development cost, quality (safety and reliability).

OEMx reduces the conflict by helping to reduce time to market and reduce development cost while likely improving safety & reliability. This is done by providing a next generation integrated set of easy-to-use tools to support design verification for systems/products. These tools have built-in Knowledge Bases that speedup each task. Any task in the process which does not provide high value per hour is eliminated. From Requirements Entry and Tracking to Validation Testing, OEMx tools can streamline the new product development process.

REQxTM, part of the OEMxTM product line from exida, is used to enter requirements from different sources, define the associated validation test objectives and trace the bi-direction linkage demonstrating complete test coverage. The tool also provides a set of features available in the entire suite including Action Item editor, requirements to implementation / test linkage, and report generators to create needed documentation. 

FMEDAxTM, part of the OEMxTM product line from exida, can be used to analyze the impact of component failure modes and perform quantitative analysis of products and subsystems to predict safety and reliability performance metrics as required by the IEC 61508 family of standards.

ARCHxTM, part of the OEMxTM product line from exida, can be used to perform system / subsystem / product architecture analysis to document the design, evaluate the impact of potential design faults in hardware and/or software (DFMEA), identify potential cybersecurity vulnerabilities, and document FMEDA information (DDMA). 

The OEMx Knowledge Base support helps achieve faster results with less experienced staff and builds staff skills.

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Products


ARCHx

Architecture design analysis and verification (FMEA)

ARCHx™ is a tool used to perform architecture design verification and essential design documentation. Using a version of the Design Failure Modes and Effects Analysis (DFMEA) method called Design Deviation and Mitigation Analysis (DDMA), the tool is used to identify issues (called Deviations) in a design that must be mitigated. ARCHx has replaced traditional methods with intelligent, next generation features to reduce engineering hours.  exida expert knowledge within ARCHx has with content sensitive suggestions for known deviations and mitigation measures for different types of architectural building blocks. This feature can reduce engineering time and improve the quality of the architecture design verification. exida calls this method Design expert Deviation and Mitigation Analysis (DexDMA).  

ARCHx gathers and organizes design documentation needed for devices where Functional Safety or Cybersecurity certification is a requirement. The information gathered for FMEDA is directly available to the FMEDAx™ application to speed-up the FMEDA process. By way of the Test Manager feature, ARCHx allows the analyst / team to create integration and/or software module test objectives for each subsystem / unit while the goals and design intent for proper interaction between units are fresh in their mind. Integration Test objectives can be linked to one or more Units for quick reference and sorting.

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FMEDAx

Device failure rate and failure mode prediction for safety and availability analysis

The exida FMEDAx™ Tool is used to perform and document a detailed component level FMEDA on a System or Subsystem consisting of electrical, mechanical, or sensor components.  The FMEDAx tool accepts the functional failure mode data from ARCHx and allows faster and more accurate subsystem/device failure prediction. Designers save time and discover design issues early in the design process.

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Component Reliability Database (CRD) takes FMEDA predictions to a New Level of Accuracy

Component Reliability Database (CRD) takes FMEDA predictions to a New Level of Accuracy

The exida CRD helps you generate the most accurate safety & reliability predictions possible, leading to better design decisions. The comprehensive data set undergoes rigorous calibration against field failure data and is updated regularly. Information on useful life, failure modes / distributions, impact of soft error rates, packaging, operating environment, etc. is included in the standard data set; this eliminates the need for you to search for / fill in missing data.  The Environmental Profile Editor is also available to allow the failure data / useful life to be customized for specific situations.

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Requirements Entry / Test Tracking for Embedded System Development Projects

exida provides the REQxTM tool to capture and manage requirements with expert knowledge support. Each requirement has an attribute and status. Requirements can be entered hierarchically to show more detail as the design progresses. Full tracing can be done to show related validation test objectives and design implementation units.  With a direct connection to ARCHx and FMEDAx, new requirements derived from design analysis can be quickly created without leaving the context of OEMx – reducing time spent and lost requirements.  

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Tool Training Courses

exida provides training to allow our potential tool users to rapidly understand the tools and methodologies used. Training is available in person on-site as well as internet based. Customized versions are available.

CS 248 - Cybersecurity Threat Analysis with ARCHx

An essential task that is part of cybersecurity development process is the Threat Analysis. The result of this work is used to define necessary defense mechanisms in an embedded device design. This course explains how to use the ARCHx tool to perform an embedded device or system threat analysis by providing a detailed knowledge base of threats, actors, and defense mitigation techniques. This course also explains how to show compliance to IEC 62443 cybersecurity certification requirements.

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FSE 247 E - Practical Electronic FMEDA with FMEDAx

The FMEDA method was invented to predict failure rates for each failure mode of a device, subsystem, or component. The ”Practical Electronic FMEDA with FMEDAx” course explains the FMEDA method, objectives, and output. In this course an example device FMEDA will be done showing the fundamental concepts including environmental profile selection, diagnostic coverage analysis, proof test coverage analysis, complex integrated circuit (IC) analysis, device packaging impact, and functional failure modes.

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FSE 247 M - Practical Mechanical FMEDA with FMEDAx

The FMEDA method was invented to predict failure rates for each failure mode of a device, subsystem, or component. The "Practical Mechanical FMEDA with FMEDAx" course explains the FMEDA method, objectives, and output. In this course an example device FMEDA will be done showing the fundamental concepts including environmental profile selection, diagnostic coverage analysis, proof test coverage analysis, part selection, and functional failure modes.

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FSE 248 - Essential DFMEA

It is well known that a product development schedule and cost will be reduced if problems are found early in the development process. Techniques such as Failure Modes and Effects Analysis (FMEA) have been developed over several decades to achieve this goal. This course describes the essential elements of a design FMEA (DFMEA) and the benefits of this approach. The course explains the common process used, with examples and exercises. The use of “expert knowledge” is explained. This technique further reduces engineering hour cost with fewer missed issues. This course also explains how to use the ARCHx tool expert knowledge with examples.

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