1. How Omnexsystem Transforms EV AV Software with Its All-in-One Platform The fast-moving automotive industry, electric and autonomous vehicles (EV-AV) demand not only innovation in hardware and software, but also rigorous adherence to safety, quality, and regulatory standards. For engineering teams tackling this complexity, Omnexsystem’s electric and autonomous vehicle software platform offers a unified, all-in-one solution that can dramatically streamline development and implementation. Understanding the Implementation Challenge Implementing EV AV Software is inherently complex. Teams must manage functional safety under ISO 26262, software process maturity under Automotive SPICE, cybersecurity per ISO 21434, and system risk under SOTIF (ISO 21448) all while ensuring traceability, version control, and alignment across system, hardware, and software domains. Traditionally, these disciplines operate in silos. Disconnected tools, manual documentation, and fragmented workflows lead to rework, audit risk, and inefficiency. Omnexsystem addresses these challenges directly with its eMobility Software Platform, which integrates all these standards and workflows into a single digital thread.This makes implementation not just scalable, but efficient, and well-aligned with best practices. Step 1: Planning & Program Setup The first phase of implementation with the Omnexsystem platform centers on New Product Development (NPD) and APQP (Advanced Product Quality Planning). Within the platform, teams can plan and track all program deliverables, resources, milestones, and risk.

2. Engineering leadership defines project scope, assigns resources, and maps critical paths. Risk registers are established early, and the system supports review and mitigation cycles. The platform supports design reuse and “family of parts” modeling, which accelerates planning for variants. At this stage, security plans for cybersecurity (ISO 21434) and functional safety (ISO 26262) are linked with the overall project plan. Because Omnex’s platform is built for “coupled design” combining safety, process, and cybersecurity the planning phase embeds quality and compliance from the very start. Step 2: Requirements Management & Traceability Once planning is in place, the team uses the platform’s Requirements Management module to capture stakeholder needs (Voice of Customer), system functions, architectural requirements, safety requirements, and more. Omnexsystem supports hierarchical requirement modeling (system → subsystem → hardware/software) with full forward and backward traceability. Requirements are linked to the bill of materials (BOM), so every system component mechanical, electrical, software has traceable requirements. The platform supports revision control, reviews, and change management on requirements, reducing error risk in handovers. This traceability is crucial when implementing functional safety(ISO 26262), because you must show that every safety-relevant requirement is traced all the way through hazard analysis, architecture, tests, and validation. Step 3: Safety Engineering HARA, FMEA, FTA

3. With requirements defined, teams move into safety engineering. The platform’s functional safety module supports: HARA (Hazard Analysis and Risk Assessment): Identify hazards, define ASIL (Automotive Safety Integrity Levels), and assign safety goals. Technical Safety Concept: Allocate safety goals to system components. Design Tools: Use SysML/UML diagrams, interface function matrices, P-diagrams, and more — all within the same environment. Omnex Systems FMEDA / FTA: Perform detailed failure analyses (FMEDA) and fault-tree analysis (FTA), linked to requirements and test cases to maintain traceability. Because these analyses live in the same platform, any change (e.g. a requirement update) automatically highlights impacted work products. This dramatically reduces the risk of orphan requirements or untested hazards. Step 4: Cybersecurity & SOTIF Integration Simultaneously, Omnexsystem supports the development of cybersecurity work products against ISO 21434 and SOTIF (ISO 21448) risk assessments. Security engineers can manage and plan cybersecurity activities, tie security requirements back to system design, and integrate those artifacts with the rest of the development flow. For SOTIF, the platform helps model the behavior of the system in its intended functionality and analyze scenarios of misuse or unexpected system behavior. This supports hazard identification not just from malfunction, but from unsafe-but-expected behavior. By integrating these domains, Omnexsystem ensures that safety, security, and functional behavior are designed together (“coupled design”), rather than as separate afterthoughts. Step 5: Project Execution and Change Management Once design and risk analyses are under way, the platform helps teams manage change a critical factor in complex EV-AV programs. The Change Request & Configuration Management module supports ECRs, ECNs, supplier change requests, internal change, and more. All work products (requirements, test artifacts, safety analyses, design diagrams) are versioned and linked, so reviewers can clearly understand what changed, why, and when. Approval workflows are configurable so cross-discipline teams (safety, software, hardware, quality) can enforce governance. EV AV Software This level of control helps prevent uncontrolled changes that could undermine safety, quality, or certification-readiness. Step 6: Verification, Inspection, and Test Testing, validation, and inspection are integrated directly into the platform.

4. The Inspection Control & Management module links inspections (incoming, in- process, final) to control plans, check sheets, and APQP documentation.Inspectors can work with a mobile app to collect data even when offline, then sync results back into the system. For verification, test plans tied to ASIL levels and requirements are managed in a traceable way, ensuring that safety and functional criteria are not only defined, but verified. At the same time, CAPA (Corrective and Preventive Action) is fully integrated: when a non-conformance or issue arises, the system captures it, links it back to root-cause analysis (like 8D or fishbone), and drives closure. Step 7: Audits, Assessments, and Continuous Improvement To maintain compliance and support certification, Omnexsystem’s platform provides tools for audit planning and non-conformance management. The Audits & Assessments module allows scheduling of standard or custom audits, building checklists, and logging findings. Non-conformances are recorded and tied to corrective actions, ensuring a closed-loop quality system. Continuous improvement is baked in: CAPA actions, changes, audits, and lessons learned feed back into future cycles. This aligns with a mature process thinking approach like ASPICE, where continuous process improvement is essential. Step 8: Metrics, KPIs, and Insights A key part of successful implementation is visibility. Omnexsystem’s platform includes a KPI Business Intelligence module that helps teams define, monitor, and act on metrics. Out-of-the- box dashboard templates are available, but users can also build custom reports using drag-and-drop tools no programming required. Omnex Systems Teams can track safety coverage (e.g., how many safety goals are traced, how many test cases passed per ASIL), change request status, inspection results, and CAPA closure. Real-time visibility helps program leadership make data-driven decisions, prioritize risks, and optimize resources. Step 9: Advanced Implementation with AI – eMobility.AI To further accelerate and optimize EV-AV product development, Omnexsystem offers eMobility.AI, a version of the platform augmented with artificial intelligence. eMobility.AI predicts risk for example, it can identify potential project delays, resource bottlenecks, or quality issues early. It uses machine learning to learn from previous projects (“family of parts”), auto- generate system requirements, and suggest root causes for repeat failures.

5. The platform’s built-in ASPICE “AI Bot” can guide and train teams, automate workflows, and reduce review cycles. Through this intelligence, organizations can reduce design cycle time, avoid rework, and improve launch predictability. Omnex reports real ROI, including millions in cost savings from delayed launches or manual processes. Step 10: Deployment, Training, and Scaling A successful EV-AV software implementation is not just about the tool it’s about people and process. Omnexsystem supports deployment, training, and scaling in these ways: The platform can be deployed in the cloud or on-premise, depending on corporate policy and security requirements. Implementation services include expert coaching, process consulting, and training (e-learning) so teams adopt best practices from day one. As programs scale across multiple vehicle lines, suppliers, or sites the shared digital thread supports collaboration and traceability without fragmentation. Benefits Achieved Through Implementation By implementing Omnexsystem’s all-in-one EV AV Software , organizations typically realize: 1.Faster Time to Market: Integrated planning, requirement flow-down, and AI-driven risk management reduce delays. 2.Reduced Compliance Risk: Traceability across ISO 26262, ASPICE, ISO 21434, and SOTIF ensures audit readiness and well-documented safety cases. 3.Lower Rework: Changes propagate across work products, reducing orphaned items and reducing engineering effort.

6. 4.Scalable Collaboration: Cross-discipline teams (safety, software, hardware, quality) work in a single system, reducing silos. 5.Improved Decision-Making: Real-time dashboards and KPI visibility help leaders act proactively. 6.Cost Savings via AI: eMobility.AI’s predictive capabilities and workflow automation deliver measurable ROI. Key Considerations & Best Practices for Implementation Executive Buy-in: Securing leadership support early is critical, because a cross-discipline platform requires cultural alignment. Process Alignment: Before tool deployment, map out how your teams currently work (safety, software, quality) and design a target “coupled-design” process. Training Strategy: Use Omnex-provided coaching and e-learning. Pair that with on-the-job champions to drive adoption. Data Migration: Bring in existing requirements, FMEA, BOM, test artifacts, and ensure traceability is preserved. Change Governance: Set up clear workflows for change requests, approvals, and traceability early. KPI Definition: Define meaningful KPIs (safety coverage, test passrate, inspection yield, change turnaround) and build dashboards. Continuous Improvement: Use audits, CAPA, and retrospective metrics to refine process and tool usage as your EV-AV program matures. Conclusion Implementing Omnexsystem’s electric and autonomous vehicle software platform is more than just a tool roll-out. It is a transformational approach to EV-AV product development, enabling cross-discipline alignment, embedded compliance, real-time visibility, and predictive intelligence. From safety and cybersecurity to quality planning and change control, the platform brings together all critical domains into a single digital thread. #Development #Autonomous Vehicles #Emobility #Vehicle Safety #Mobility Innovation For more info Contact Us : (734) 761-4940 or send mail : info@omnexsystems.com to get a quote