📦 Resource pdf

ROC Contingency Plan Framework (ISO 22301 Aligned)

The ROC Contingency Plan Framework (ISO 22301 Aligned) is a structured, risk-based methodology for ensuring continuity of critical remote operations center functions during disruptive incidents affecting mining assets, personnel, systems, or infrastructure. It operationalizes ISO 22301:2019 requirements—specifically business impact analysis (BIA), risk assessment, response activation protocols, and continual improvement—within the unique context of centralized mine remote operations. The framework integrates real-time telemetry, human-in-the-loop decision support, and geographically distributed redundancy to maintain safe, compliant, and productive control of autonomous and semi-autonomous mining equipment during outages.

📖 Overview

The ROC Contingency Plan Framework provides a systematic approach to identifying, prioritizing, and sustaining essential remote operations functions—including fleet monitoring, process control, safety interlock management, and emergency response coordination—when primary systems or locations fail. Unlike generic business continuity plans, it explicitly addresses ROC-specific dependencies such as low-latency satellite/5G connectivity, time-sensitive SCADA telemetry, cyber-physical system integrity, and regulatory reporting obligations under mining health and safety legislation (e.g., MSHA, DMRE). Core to the framework is the ROC Business Impact Analysis (ROC-BIA), which quantifies Maximum Acceptable Outage (MAO) and Minimum Business Continuity Objective (MBCO) per functional process—not just at the organizational level but down to individual control loops (e.g., haul truck dispatch latency < 500 ms). The framework mandates scenario-based testing across three tiers: technical (e.g., primary HMI failure), operational (e.g., loss of site-wide comms), and strategic (e.g., regional power grid collapse), with defined escalation paths, role-based activation checklists, and predefined fallback configurations (e.g., local edge controllers assuming limited autonomy during WAN loss). Continual improvement is enforced via post-incident reviews linked to ISO 22301 Clause 10 requirements, including metrics tracking mean time to restore (MTTR) for ROC-critical services and annual validation of recovery time objectives (RTOs) against evolving automation architecture (e.g., AI-driven predictive maintenance integration).

📑 Key Components

1 ROC-Specific Business Impact Analysis (ROC-BIA)
2 Tiered Incident Response Playbooks (Technical/Operational/Strategic)
3 Geographically Redundant ROC Architecture with Failover Automation

🎯 Applications

  • Activation of secondary ROC site during primary facility outage
  • Cybersecurity incident containment while preserving real-time equipment safety controls
  • Continued remote supervision of autonomous haulage during regional telecommunications disruption

📐 Key Formulas

ROC Recovery Time Objective (RTO) Compliance Ratio

RTO_Compliance_Ratio = (Actual_MTTR / Assigned_RTO) × 100%

Measures percentage deviation of actual mean time to restore ROC-critical functions from their assigned RTO; values >100% indicate non-compliance.

Functional Criticality Index (FCI)

FCI = (Safety_Impact × 0.4) + (Production_Impact × 0.3) + (Regulatory_Consequence × 0.3)

Weighted score (0–1) quantifying the criticality of a ROC function based on safety, production, and compliance impacts; used to prioritize BIA scope and resource allocation.

🔗 Related Concepts

Business Continuity Management System (BCMS) Mining Operational Technology (OT) Resilience Remote Operations Center (ROC) Architecture

📚 References

#mining #business_continuity #ISO_22301 #ROC #critical_infrastructure