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Model-based RAMS Software

Unlock Proactive Safety Engineering

Accelerate Safety-Critical Decision Making with the Digital Risk Twin

The Safety and Risk Assessment (SRA) Module in the MADE platform revolutionizes how engineers manage technical risk across the lifecycle of complex systems. At the heart of this module lies the Digital Risk Twin (DRT), a dynamic, model-based representation of system behavior, failure impacts, and safety risks, enabling proactive and data-driven safety engineering from concept to sustainment.

Identify potential hazards early
Quantify and visualize criticality
Simulate functional and hardware faults
Highlight common mode failures
Prioritize risk mitigation actions
Support continuous design validation

From Compliance to Competitive Advantage

Integrated Hazard Intelligence

MADE SRA automates the generation of safety analyses directly from system models, ensuring alignment between engineering intent and safety evidence. By embedding safety logic into the engineering model, it creates a living source of truth that evolves with the system design. This integration supports faster, more accurate risk identification and enables early decision-making in complex, time-critical programs. This integration allows engineers to:

SRA Module High-level Features
Model-Based Risk Assessment for Safer Systems
Criticality Analysis
Functional Model
Critical Item Analysis
Common Mode Analysis
FMECA
FTA
Criticality Charting
FHA

Certification-Ready Safety Evidence

Achieving regulatory certification for complex, safety-critical systems can be one of the most resource-intensive stages in the product lifecycle. The MADE SRA Module streamlines this process by embedding model-based safety assessments directly into the engineering workflow, producing consistent, traceable, and standards-aligned outputs at every stage of development.

Designed in accordance with ARP4761 Rev A, the module auto-generates key artifacts and maintains traceability between system models, hazard analyses, and risk mitigations. This ensures that your safety evidence is always aligned with the latest system design, eliminating the risk of data drift and manual rework.

SRA outputs directly support:


Certification packages – Generate structured safety deliverables that align with industry expectations and regulatory frameworks
Design justification – Provide objective, data-driven rationale for safety-related design decisions
Risk traceability audits – Maintain a full audit trail linking hazards, mitigations, & verification activities across system lifecycle stages
Compliance demonstration – Show adherence to functional safety & aviation requirements: ARP4761, DO-178C and MIL-STD-882E
Cross-discipline integration – Facilitate collaborative safety case development across engineering, quality, and certification teams
Failure Mapping Diagram

Hazard to Insight: MADE’s SRA Module

Find Out How - Download the MADE SRA Module Brochure

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Engineer Safety with Confidence

Automated Risk & Safety Assessment in One Unified Module

The MADE Safety Risk Assessment (SRA) Module empowers engineers to proactively manage system risk, optimize safety-critical designs, and streamline certification. By integrating functional hazard analysis, fault modeling, and criticality assessment into a single, model-based environment, SRA transforms traditional safety processes into a seamless part of the design lifecycle. From early hazard identification to audit-ready evidence, this module delivers clarity, consistency, and compliance, at the speed of innovation.

Key capabilities of this module include:


Functional Model (ARP4761 Rev A)

Create a functional model of the system (hardware independent)

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Functional Hazard Assessment (FHA) (ARP4761 Rev A)

Identify potential hazards that can arise based on the Functional Model

Dependency Mapping

Criticality Analysis

Analysis to auto-generate component criticality in a system based on user defined criticality profiles

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Criticality Charting

Dashboards key criticality metrics for the system (component, system)

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Fault Tree Analysis (Functional)

Auto-generate Functional Fault Tree Analyses based on model pathing

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Fault Tree Analysis (Hardware)

Auto-generate Hardware Fault Tree Analyses based on RBD configuration

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Fault Tree Analysis (User-defined)

Generate Functional Fault Tree Analyses independent of model structure

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Failure Mode, Effects and Criticality Analysis (FMECA)

Auto-generate a FMECA based on the system model specified and criticality profile.

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Common Mode Analysis (CMA) (ARP4761 Rev A)

Automated analysis to identify common failures modelled in the system

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Control Measures

Customise Control Measures for your project to reduce risk and reduce criticality of any selected failure

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