Reliability & Authenticity Passport Application for Critical Semiconductors
Executive Summary
When the U.S. leads in advanced tech standards, it sets the rules of the game for open markets, innovation, privacy, and free expression. This DLT use-case applies that principle to semiconductor manufacturing reliability and provenance, making the U.S.-anchored standards the global rulebook for creating and trusting device-level evidence across global supply chains. It addresses IP protection and traceability issues where fragmented practices fall short, turning reliability into a verifiable, standards-driven asset. The model supports industry standard manufacturing, cybersecurity, and resilient supply-chain priorities, filling gaps in multi-party verification, and ensuring global standards reflect American, not state-directed, approaches to trusted commerce and creating a durable competitive advantage for U.S.-anchored manufacturing.
Problem Statement
The American economy has become increasingly dependent on semiconductors for key infrastructure including water, power, banking, and transportation. Future economic growth is dependent on semiconductor innovations such as improved device reliability, transparency in materials sourcing, design technology, and supply chain security. The industry is transitioning to defects-per-trillion reliability requirements, yet lacks a comprehensive, interoperable, cohesive blueprint for reliability and provenance that spans the entire value-chain, including stakeholders and implementations. This situation compels markets to bear substantial qualification costs, risk exposure, and hinders monetization of intellectual property and quality at speed, resulting in substantial economic and security consequences.
Weak evidence drives steep cost escalation. In a modeled Defense Logistics Agency counterfeit case, 891 purchase orders grew from $1.8 million in parts to $20 million in investigation, remediation, and shortage adjustments. Critical infrastructure has seen similar impacts, from counterfeit components in Missile Defense Agency systems, to counterfeit Cisco networking gear generating over 1 billion dollars in retail impact. These events occur because there is no standard reference architecture for multi-party verification that can cryptographically anchor device identity at manufacture, carry evidence across lifecycle stages, and support permissioned access to sensitive process data without centralized ownership.
Technical Approach
The reliability & authenticity application creates a fab-anchored certification model that turns device reliability and security into verifiable, portable, tokenized properties. By tying device identity to evidence, it delivers a “Reliability Passport” that supports faster qualification and differentiation. The initial use-case combines four elements:
A U.S. foundry-issued Certificate Authority that binds device identity to evidence
Metrology results are treated as reference artifacts linked to that identity
A digital thread that uses permissioned APIs and audit trails inside existing tools
Human governance that sets certification criteria and makes final decisions
The solution validates a repeatable, collaborative certification blueprint, while the U.S. foundry anchor advances domestic manufacturing goals and provides immediate credibility.
End-to-End Flow
At the fab, a U.S. foundry assigns each wafer a unique certificate tying an on-chip root of trust to its lot, process, and initial measurements. As devices advance through various stages, a permissioned digital thread links identity and evidence across organizations without sharing proprietary data. OEMs submit reliability checklists and get verified pedigree, metrology, and test results. Analytics providers issue a Reliability Passport per batch/lot, updated with field data to spot risks. OEMs use it for screening, maintenance, and readiness, backed by a digital twin linking device health to systems. For suspect parts, cryptographic provenance reduces investigation days and false positives, while rapid mapping of new vulnerabilities enables targeted fixes and faster, more confident Defense and OEM sourcing decisions.
Scope & Anticipated Outcomes
The use-case delivers new measurement methods and reference implementations by anchoring device identity at the fab, combining intrinsic silicon fingerprints with a cryptographic root of trust so measurements stay linked from wafer through field deployment with controlled disclosure across organizations. It provides a reference testbed for multi-party traceability, showing interoperability among EDA tools, a foundry certificate authority, OSAT packaging IDs, digital-thread infrastructure, analytics providers, and OEM qualification workflows as a repeatable blueprint for deploying a certification ecosystem. It defines a practical suite of conformance tools and benchmarks so participants can test whether their implementations meet traceability and decision-support requirements.
A clearinghouse is needed to coordinate trust across competing suppliers and OEMs without giving disproportionate advantage to any single commercial platform. MICROCO will be established as this member-owned utility and clearinghouse that governs the certification platform, convenes solution working groups around high-value vertical use cases, and runs a marketplace for provenance, traceability, IP-protection, anti-counterfeit services, and reliability and failure-prediction analytics without central vendor lock-in. Modeled impacts show that this shared infrastructure delivers measurable gains in trust, security, reliability, and interoperability, yielding both new revenue streams for members generated from market access, and cost avoidance through lower logistics friction, tighter incident scoping, faster cyber response, and shorter qualification cycles.
Critical stakeholders see direct value in the following ways:
OEMs shorten qualification times, reduce lifecycle risk, and gain access to regulated programs
Suppliers differentiate on verified reliability pedigree and access premium markets
U.S. foundries monetize certification services while protecting process IP
Government programs enforce trusted-supplier policies, measure CHIPS return on investment through utilization data, and share in equity-aligned financial upside as transaction volumes grow
The resulting ecosystem gives implementers as well as standards bodies a concrete solution they can use to update rules and guides for tracking where chips come from and how they are used. It works with industry groups like SEMI, IPC, and SAE so each major sector (cars, planes, data centers, defense) can follow the same fundamental playbook, making it easier for companies to join and trust the system. Success depends on a committed U.S. foundry, at least one OEM that wants certified parts, common APIs into design and manufacturing tools, and a neutral governing body so no single vendor controls the system.
Conclusion
This use-case shows how a foundry-anchored traceability application can turn semiconductor reliability from a hidden cost into a verifiable asset that drives market access, revenue growth, and national advantage by issuing each lot and device a Reliability and Authenticity Passport. By binding device identity to metrology evidence and enabling permissioned, multi-party data exchange, the passport delivers concrete reductions in qualification overhead, counterfeit costs, and supply-chain uncertainty for OEMs and government programs. The economic model shows that weak traceability drives total costs significantly higher, while traceability and passport-backed evidence reduce time and expense, with early wins visible within months. It will take 24–36 months to realize the full value of the multi-party interoperability, careful data-sharing, and real decision support in day-to-day operations, after which the application and clearinghouse ecosystem provide a credible path to scalable ecosystem deployment. In doing so, they embed U.S. values of open markets, private-sector innovation, privacy, and free expression into the rule set carried by each Reliability and Authenticity Passport moving through critical microelectronics supply chains.