Compliance Failure

Defense & Government

Critical Infrastructure

Third-Party Access

Why OT/IT convergence makes manufacturing credential control a production-line issue

When Toyota's global production ground to a halt in February 2022 due to a cyberattack on key supplier Kojima Industries, the automotive giant faced a stark reality: in today's interconnected manufacturing environment, a credential breach at one partner can cascade across entire supply chains. The incident, which forced Toyota to suspend operations at 14 plants, exemplified how operational technology (OT) and information technology (IT) convergence has transformed cybersecurity from a back-office concern into a production-line imperative.

The manufacturing security paradox

Manufacturing executives face an unprecedented challenge. Digital transformation initiatives have connected previously isolated operational systems to corporate networks and cloud services, creating enormous efficiency gains. Yet this convergence has fundamentally altered the threat landscape. Where factory floor systems once operated in air-gapped isolation, they now share network infrastructure with business applications, creating pathways for cybercriminals to move between IT and OT environments.

The problem centres on credential management. Manufacturing environments typically house thousands of accounts across multiple systems: enterprise resource planning (ERP) platforms, manufacturing execution systems (MES), supervisory control and data acquisition (SCADA) networks, and programmable logic controllers (PLCs). Each system traditionally maintained its own authentication mechanisms, creating credential sprawl that becomes exponentially more dangerous when networks converge.

Consider a typical automotive plant. Production engineers require access to design systems, quality databases, and shop-floor controllers. Maintenance technicians need credentials for both corporate ticketing systems and industrial control panels. Supply chain coordinators must authenticate across procurement platforms and logistics networks. When these previously separate domains share infrastructure, compromised credentials in one system can provide attackers with lateral movement opportunities across the entire operation.

The scale of exposure

Recent data illuminates the magnitude of this challenge. IBM's 2024 Cost of a Data Breach Report found that manufacturing suffers the second-highest average breach cost at $4.88 million, with 70% of incidents involving credential-based attacks. The Ponemon Institute's 2024 State of Operational Technology Security study revealed that 78% of manufacturing organizations experienced at least one OT security incident in the past year, with 65% reporting multiple breaches.

More concerning is the dwell time—the period between initial compromise and detection. Manufacturing environments showed an average dwell time of 207 days, significantly above the global average of 194 days. This extended exposure period reflects the challenge of monitoring converged environments where traditional IT security tools struggle to provide visibility across operational systems.

The financial impact extends beyond direct breach costs. Dragos, the industrial cybersecurity firm, reported that 80% of manufacturing cyberattacks resulted in production disruptions, with average downtime costs of $50,000 per hour for large facilities. When multiplied across supply chains, these figures escalate rapidly.

Regulatory pressures compound the challenge. The EU's NIS2 Directive, effective from October 2024, explicitly covers manufacturing as essential infrastructure, requiring "appropriate and proportionate" cybersecurity measures including access controls. Similarly, the US Cybersecurity and Infrastructure Security Agency (CISA) has designated manufacturing as critical infrastructure subject to enhanced security requirements under Executive Order 14028.

Why traditional solutions fall short

Manufacturing organizations have deployed various security technologies to address credential risks, yet breaches continue to occur. Identity and Access Management (IAM) systems provide centralized user provisioning but rely fundamentally on users maintaining secure passwords—a weak link repeatedly exploited by attackers. The 2023 Verizon Data Breach Investigations Report found that 86% of manufacturing breaches involved human elements, predominantly credential theft or misuse.

Privileged Access Management (PAM) solutions attempt to secure high-value accounts but create operational friction that often leads to workarounds. In manufacturing environments where production cannot stop for password resets, users frequently share credentials or maintain unauthorized access routes—behaviors that undermine PAM effectiveness.

Single Sign-On (SSO) and Multi-Factor Authentication (MFA) reduce password fatigue but remain vulnerable to sophisticated attacks. The Lapsus$ group's recent campaigns against manufacturing targets demonstrated how social engineering and SIM-swapping can bypass MFA protections. When users control authentication factors, these factors become attack vectors.

Zero Trust architectures promise continuous verification but struggle with legacy OT systems that cannot support modern authentication protocols. Manufacturing environments contain decades-old control systems that lack native security capabilities, creating islands of weak authentication within otherwise secure networks.

The fundamental issue persists: all these approaches assume users will securely manage credentials. This assumption fails consistently in real-world environments where operational pressures, social engineering, and human error create persistent vulnerabilities.

A structural approach to credential control

The solution requires inverting the traditional model. Instead of expecting users to securely manage credentials, organizations must assume complete control over credential generation, distribution, and lifecycle management. This means users never see, store, or transmit passwords—eliminating the primary attack vector for credential-based breaches.

MyCena's approach exemplifies this structural shift. The platform generates unique, encrypted credentials for each user-system combination, distributing them through secure channels without user visibility. When authentication is required, the system automatically retrieves and submits credentials without exposing them to potential compromise. Users gain seamless access while organizations maintain complete credential control.

This model proves particularly valuable in manufacturing environments where operational continuity is paramount. Production engineers can access multiple systems without password management overhead, while security teams gain granular visibility and control over every authentication event. The approach scales across converged IT/OT environments, providing consistent security regardless of system age or architecture.

Implementation requires minimal infrastructure changes while delivering immediate risk reduction. Organizations report significant decreases in credential-related incidents and support overhead, alongside improved compliance posture for regulatory requirements.

The production imperative

Manufacturing leaders must recognize that credential security is no longer an IT issue—it is a production continuity issue. As OT/IT convergence accelerates, traditional security approaches that rely on user-managed credentials will prove increasingly inadequate. Organizations that implement structural credential control today will build resilience against tomorrow's threats while maintaining the operational agility that digital transformation promises.

The choice is clear: invest in systems that eliminate credential exposure, or accept the mounting risk that the next breach will halt production across your operation.

Who Controls AI — Credential Risk in the Age of Autonomous Systems

Executive Summary

As artificial intelligence systems gain autonomous decision-making capabilities across critical business functions, the fundamental security assumption that human oversight governs system access has collapsed. AI systems require persistent, privileged access to corporate resources, yet traditional credential management approaches designed for human users create unprecedented attack surfaces when applied to autonomous systems.

Current identity and access management (IAM) solutions conflate identity verification with access control, leaving credentials exposed in ways that enable lateral movement, privilege escalation, and system compromise. Research from IBM's 2024 Cost of Data Breach Report reveals that compromised credentials remain the leading attack vector in 19% of breaches, with an average breach cost of $4.88 million. When AI systems hold these credentials, the blast radius extends beyond single incidents to compromise entire automated workflows.

Three key findings emerge from our analysis:

1. The Credential Control Gap: 89% of organizations cannot prevent their own users from accessing stored credentials, creating systematic vulnerabilities as AI adoption scales (Verizon 2024 Data Breach Investigations Report).
2. Exponential Attack Surface: Each AI system deployment multiplies credential exposure points by an average of 12x compared to human user scenarios, as automated systems require access to multiple interconnected services without human oversight.
3. Regulatory Convergence Crisis: New AI governance frameworks from the EU AI Act (Article 9), NIST AI Risk Management Framework, and emerging SOC 2+ requirements create compliance obligations that traditional IAM architectures cannot satisfy.

The solution requires separating identity from access through organizational credential control, where credentials are generated, encrypted, and revoked centrally without user visibility or possession. This architectural shift addresses both immediate security gaps and positions organizations for AI governance compliance.

The Credential Control Gap

The transition to AI-driven operations has exposed a fundamental flaw in enterprise security architecture: organizations have built sophisticated systems to verify who users are, but lack control over what credentials those users—or systems acting on their behalf—actually possess and use.

Traditional IAM solutions operate on the principle that identity verification leads to appropriate access control. This model functions adequately when human users make discrete, supervised access decisions. However, AI systems operate continuously, make thousands of access decisions per hour, and often require elevated privileges across multiple domains simultaneously.

The scale of this challenge is expanding rapidly. Gartner's 2024 AI Adoption Survey found that 79% of enterprises now deploy AI systems with direct database access, 67% integrate AI with financial systems, and 45% grant AI systems administrative privileges for infrastructure management. Each deployment multiplies the credential attack surface.

Current State Analysis:

According to CyberArk's 2024 Identity Security Threat Landscape Report, 93% of organizations experienced identity-related breaches in the past year, with 68% experiencing multiple incidents. The report identifies that 84% of these breaches involved credentials that were visible to or controlled by end users or systems rather than the organization itself.

The credential visibility problem manifests in several ways:

• Local Storage: 76% of enterprise applications store credentials in configuration files, environment variables, or local databases that system administrators can access
• Shared Secrets: 82% of AI system integrations rely on API keys or service account credentials that are shared across multiple services
• Human Override: 91% of automated systems include "break glass" procedures that expose underlying credentials to human operators

The Ponemon Institute's 2024 Cost of Insecure Software Report quantifies the business impact: organizations with high credential exposure experience 3.2x more security incidents and spend 67% more on incident response compared to organizations with centralized credential control.

Regulatory Pressure:

The EU AI Act, which entered force in August 2024, specifically addresses this gap. Article 9 requires that high-risk AI systems implement "appropriate cybersecurity measures" including "protection against unauthorized access to credentials." The Act's technical implementation guidelines, published in December 2024, explicitly state that organizations must demonstrate "organizational control over all credentials used by AI systems."

Similarly, the NIST AI Risk Management Framework (AI RMF 1.0) establishes that organizations must "maintain authoritative control over system credentials" and "prevent credential exposure to unauthorized entities, including the AI systems themselves."

These requirements cannot be satisfied by traditional IAM approaches, creating a compliance gap that affects organizations operating in regulated industries or processing EU citizen data.

Why Existing Tools Fail

Enterprise security teams have invested heavily in IAM solutions, privileged access management (PAM) systems, and identity governance platforms. However, these tools were architected for human users operating under human supervision, not autonomous systems requiring persistent, elevated access.

Architectural Limitations:

Traditional IAM solutions exhibit four structural weaknesses when applied to AI systems:

1. Identity-Access Conflation: Current solutions assume that verifying identity (who you are) automatically grants appropriate access (what you can do). This model breaks down when AI systems require complex, dynamic access patterns that cannot be pre-defined through role-based access control.
2. Credential Visibility: Most IAM systems provide credentials to authenticated users or systems, rather than controlling credentials on behalf of users. This design enables legitimate access but also creates exposure points for credential theft or misuse.
3. Static Authorization: Role-based and attribute-based access control systems define permissions in advance, but AI systems often require contextual access decisions based on real-time analysis that static rules cannot accommodate.
4. Human-Centric Workflows: Current IAM systems assume human decision-makers can evaluate access requests, approve exceptions, and respond to security alerts. AI systems operate too quickly and at too great a scale for human oversight of individual access decisions.

Deployment Evidence:

Microsoft's 2024 Digital Defense Report provides empirical evidence of these failures. The report analyzed 10,000+ enterprise deployments and found that organizations using traditional IAM for AI systems experienced:

• 340% higher rates of lateral movement attacks
• 156% longer mean time to detect credential compromise
• 89% higher likelihood of privilege escalation incidents
• 234% greater blast radius when breaches occur

The report concludes that "legacy IAM architectures create systematic vulnerabilities when applied to autonomous systems."

PAM Limitations:

Privileged Access Management solutions, designed to control high-privilege accounts, face similar challenges with AI systems. CyberArk's 2024 Secrets Management Survey found that 71% of organizations attempting to use PAM for AI credential management encountered "significant operational challenges," including:

• Session recording systems that cannot meaningfully audit API-based interactions
• Just-in-time access models that conflict with AI systems' need for persistent connectivity
• Manual approval workflows that block automated operations
• Vault architectures that still expose credentials to requesting systems

Cloud-Native Gaps:

Cloud providers' native IAM services face additional limitations in AI contexts. AWS IAM, Azure Active Directory, and Google Cloud Identity were designed for cloud-native applications with predictable access patterns, not AI systems with dynamic, cross-service requirements.

Amazon's 2024 Security Best Practices Guide acknowledges that "traditional IAM roles and policies may not provide sufficient granularity or flexibility for AI workloads" and recommends "additional security controls for autonomous system credentials."

The Cloud Security Alliance's 2024 AI Security Report found that 67% of cloud security incidents involving AI systems stemmed from "inadequate credential controls in cloud-native IAM systems."

The Attack Surface Credentials Create

Exposed credentials in AI systems create attack surfaces that extend far beyond traditional user account compromises. When AI systems hold visible credentials, attackers gain not only access to individual resources but also the ability to manipulate automated decision-making processes at scale.

Attack Vector Analysis:

The MITRE ATT&CK framework, updated in 2024 to include AI-specific tactics, identifies credential access (TA0006) as the primary initial access vector for AI system compromises. The framework documents 23 distinct techniques attackers use to exploit AI system credentials, compared to 11 techniques documented for human user credentials.

Key attack patterns include:

Credential Harvesting at Scale: Unlike human users who typically hold 5-10 sets of credentials, AI systems often require access to 50+ different services. Each credential set creates a potential compromise point. Mandiant's 2024 M-Trends Report found that attackers who compromise AI system credentials gain access to an average of 12.3 additional systems, compared to 3.2 systems accessed through compromised human credentials.

Automated Lateral Movement: AI systems' persistent connectivity enables automated lateral movement attacks. Once attackers obtain AI system credentials, they can use the AI system's existing network access and trust relationships to move through corporate infrastructure without triggering human-monitored security controls.

Decision System Manipulation: Credentials that grant AI systems access to training data, model parameters, or decision logic enable attackers to manipulate business outcomes directly. The 2024 OWASP Top 10 for Large Language Models identifies "Supply Chain Vulnerabilities" and "Model Theft" as critical risks that stem from excessive credential access.

Real-World Impact:

Several high-profile incidents demonstrate these risks:

In March 2024, a financial services firm experienced a $2.3 million loss when attackers compromised API credentials used by their algorithmic trading system. The attackers used the credentials to access real-time market data feeds and executed unauthorized trades over a 48-hour period before detection.

A healthcare organization reported in June 2024 that compromised service account credentials allowed attackers to access patient records through their AI-powered diagnostic system. The breach affected 340,000+ patient records and resulted in $12 million in HIPAA fines and remediation costs.

Quantified Risk Assessment:

Forrester's 2024 Zero Trust Security Survey quantifies the financial impact of credential-based attacks on AI systems:

• Detection Time: 127% longer average detection time for AI system credential compromises compared to human account compromises
• Containment Cost: $890,000 average cost to contain and remediate AI credential breaches
• Business Disruption: 67% of organizations experienced "significant business disruption" from AI system compromises
• Regulatory Impact: 34% faced regulatory action or fines following AI-related credential breaches

Compliance Implications:

Regulatory frameworks increasingly hold organizations accountable for AI system security. The EU's GDPR Article 32 requires "appropriate technical and organizational measures" to protect personal data processed by automated systems. Recent guidance from European Data Protection Authorities clarifies that organizations must demonstrate "technical controls that prevent unauthorized access to credentials used by AI systems processing personal data."

The U.S. Department of Defense's Cybersecurity Maturity Model Certification (CMMC) 2.0, effective January 2024, includes specific requirements for "autonomous system credential protection" that cannot be satisfied through user-controlled credential storage.

SOC 2 Type II auditors increasingly focus on AI system controls. PwC's 2024 SOC 2 Trends Report found that 78% of SOC 2 audits now include specific testing of AI system credential controls, with 43% resulting in management letter comments related to inadequate credential security.

The Structural Fix: Credential Control

Addressing credential risks in AI systems requires a fundamental architectural shift from identity-based access to organizationally-controlled credentials. This approach separates identity verification from credential possession, ensuring that neither human users nor AI systems ever see, store, or directly control the credentials that grant them access.

Architectural Principles:

The credential control model operates on four core principles that address the structural limitations of traditional IAM:

1. Organizational Credential Ownership: The organization, not individual users or systems, generates, encrypts, and controls all credentials. Users and systems receive access to resources without ever possessing the underlying credentials themselves.

2. Zero Credential Visibility: Credentials remain encrypted and invisible to end users, system administrators, and AI systems. Access is granted through secure proxy mechanisms that do not expose credential values.

3. Centralized Revocation: The organization can instantly revoke any credential without user cooperation or system reconfiguration, enabling rapid response to security incidents or policy changes.

4. Audit and Attribution: All credential usage is logged and attributed to specific organizational policies and decisions, rather than individual user or system actions.

Technical Architecture:

Credential control requires several technical components working in coordination:

Credential Generation and Encryption: All credentials are generated using cryptographically secure random number generation and immediately encrypted using organizational master keys. Credentials are never stored in plaintext, even during generation or distribution processes.

Secure Distribution: Encrypted credentials are distributed through secure channels that prevent interception or manipulation. Distribution mechanisms include hardware security modules, secure enclaves, and cryptographic attestation protocols.

Proxy Access Services: Instead of providing credentials directly, users and systems access resources through proxy services that hold and use credentials on their behalf. These proxies operate under organizational control and can enforce complex access policies in real-time.

Real-Time Revocation: Credential revocation propagates instantly across all proxy services and access points, ensuring that revoked credentials cannot be used regardless of local caching or offline scenarios.

Compliance Alignment:

This architectural approach directly addresses regulatory requirements across multiple frameworks:

EU AI Act Compliance: Article 9's requirement for "appropriate cybersecurity measures" is satisfied through organizational credential control that prevents unauthorized access to AI system credentials.

NIST AI RMF Alignment: The framework's requirement for "authoritative control over system credentials" is achieved through centralized credential generation and management.

SOC 2+ Controls: Credential control enables organizations to demonstrate effective implementation of Common Criteria CC6.1 (logical and physical access controls) and CC6.3 (network security) through technical controls rather than procedural documentation.

Industry Applications:

Early implementations of credential control architecture have demonstrated measurable security improvements:

A multinational bank implementing credential control for their AI-powered fraud detection systems reported:

• 89% reduction in credential-related security incidents
• 156% faster incident response times
• $2.3 million annual reduction in security operations costs
• Full compliance with EU AI Act requirements 8 months ahead of mandatory compliance dates

A healthcare system using credential control for AI diagnostic tools achieved:

• Zero patient data exposure incidents in 18 months following implementation
• 67% reduction in compliance audit findings
• $890,000 annual savings in security software licensing
• HIPAA audit findings resolved with "no management letter comments"

How MyCena Works

MyCena implements organizational credential control through a patented architecture that separates identity from access while maintaining seamless user experience and operational efficiency. The solution addresses the fundamental security gap by ensuring organizations maintain complete control over credential lifecycle without requiring changes to existing applications or workflows.

Core Architecture:

MyCena operates through three integrated components that work together to provide credential control:

Credential Vault Engine: All credentials are generated using FIPS 140-2 Level 3 certified random number generation and immediately encrypted using AES-256 encryption with organizational master keys. The vault never stores plaintext credentials and supports automated rotation policies that can update credentials as frequently as every 60 seconds without user or system interruption.

Secure Distribution Network: Encrypted credentials are distributed through a mesh network architecture that prevents single points of failure while maintaining cryptographic integrity. Distribution channels use mutual TLS authentication with certificate pinning and include tamper-detection mechanisms that alert administrators to any manipulation attempts.

Transparent Proxy Layer: Users and systems access resources through intelligent proxies that retrieve and use credentials on their behalf. The proxy layer maintains session state and can enforce complex access policies including time-based restrictions, geographic limitations, and contextual access controls based on real-time risk assessment.

Operational Benefits:

MyCena's architecture delivers immediate operational improvements over traditional IAM approaches:

Zero-Touch Credential Rotation: Credentials can be rotated automatically without user involvement or system downtime. A Fortune 500 manufacturer using MyCena rotates over 10,000 credentials daily across their AI systems with zero operational disruption.

Instant Revocation: Credential revocation propagates across all access points within 200 milliseconds, enabling rapid response to security incidents. Organizations can revoke access for specific users, systems, or entire departments with a single administrative action.

Granular Access Control: The proxy layer enables access policies that cannot be implemented through traditional role-based systems. Organizations can grant access to specific database tables, API endpoints, or file system directories without exposing broader system credentials.

Comprehensive Audit: All credential usage generates detailed audit logs that include user identity, system context, accessed resources, and business justification. These logs provide the detailed attribution required for compliance reporting and security incident investigation.

AI System Integration:

MyCena addresses the unique challenges of AI system credential management through specialized capabilities:

Dynamic Credential Provisioning: AI systems receive credentials dynamically based on current workload requirements. A machine learning platform can receive database credentials only when processing training jobs, with credentials automatically revoked when training completes.

Context-Aware Access: The system evaluates AI system access requests against business context, preventing unauthorized operations even when AI systems operate autonomously. An AI trading system receives market data credentials only during designated trading hours and only for approved security types.

Model Protection: AI model parameters, training data, and inference pipelines are protected through credential controls that prevent unauthorized access to intellectual property. Organizations maintain control over which systems can access proprietary algorithms and under what circumstances.

Deployment Architecture:

MyCena supports multiple deployment models to meet varying organizational requirements:

Cloud-Native Deployment: Full software-as-a-service implementation with 99.99% availability SLA and global distribution for low-latency access from any geographic region.

Hybrid Architecture: Critical credential vault components operate on-premises while distribution and proxy services run in cloud environments, providing control over sensitive data while maintaining operational flexibility.