Mining AI Safety Governance

Mining AI Safety Governance is a suite of tools that designs, monitors, and enforces safety protocols for AI and autonomous systems in mining operations. It unifies risk scanning, guardrails for LLMs, and log-based risk inference to detect unsafe behaviors early and standardize safe responses. This reduces the likelihood of accidents, compliance breaches, and downtime as AI use expands across mines.

The Problem

Your AI and robots are scaling faster than your safety governance can keep up

Organizations face these key challenges:

1

Each AI/automation project invents its own safety rules and guardrails, creating inconsistent risk controls across sites

2

Safety teams can’t realistically review all logs, prompts, and model outputs for unsafe behavior

3

Near‑misses and unsafe AI behaviors are discovered only after alarms, incidents, or audits—not before

4

CTO and operations leaders lack a single, auditable view of AI risks across autonomous equipment, LLMs, and monitoring systems

Impact When Solved

Fewer AI‑related safety incidents and near‑missesStandardized, auditable AI safety controls across the mineFaster, safer rollout of new AI and autonomous systems

The Shift

Before AI~85% Manual

Human Does

  • Define and maintain safety procedures and SOPs for automated systems
  • Manually review control system logs after incidents or on a sample basis
  • Monitor dashboards and CCTV feeds for anomalies or unsafe behavior
  • Validate vendor AI/automation solutions against internal safety standards

Automation

  • Basic rule‑based interlocks and emergency stop logic in control systems
  • Vendor‑specific safety modules embedded in autonomous equipment
With AI~75% Automated

Human Does

  • Set safety policies, risk appetite, and escalation thresholds for AI systems
  • Investigate AI‑flagged incidents and high‑risk patterns
  • Handle complex trade‑off decisions and regulatory engagement

AI Handles

  • Continuously scan AI systems, logs, and interactions for safety and compliance risks
  • Enforce guardrails on LLMs and AI agents before unsafe actions or responses occur
  • Correlate signals across sensors, logs, and AI components to infer emerging risks
  • Generate standardized safety evidence and reports for internal and external stakeholders

Solution Spectrum

Four implementation paths from quick automation wins to enterprise-grade platforms. Choose based on your timeline, budget, and team capacity.

1

Quick Win

Centralized AI Safety Logboard

Typical Timeline:Days

A lightweight, centralized log and policy registry that aggregates safety-relevant events from AI-enabled systems (autonomous trucks, LLM assistants, monitoring AI) into a single dashboard. It focuses on normalizing logs, tagging safety-critical events, and providing simple rule-based alerts for obvious violations (e.g., disabled collision avoidance, unsafe prompt patterns). This validates the value of AI safety governance without changing control systems or requiring complex ML.

Architecture

Rendering architecture...

Key Challenges

  • Getting access to logs and telemetry from OT and vendor systems with strict security controls.
  • Aligning on a common safety event schema across heterogeneous AI systems.
  • Avoiding alert fatigue from naive or overly broad rules.
  • Ensuring data is time-synchronized enough to reconstruct incidents.
  • Building trust with safety teams that this is a governance tool, not a surveillance tool for individuals.

Vendors at This Level

SandvikMicrosoftIBM

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Market Intelligence

Technologies

Technologies commonly used in Mining AI Safety Governance implementations:

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Key Players

Companies actively working on Mining AI Safety Governance solutions:

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Real-World Use Cases

SGuard-v1: Safety Guardrail for Large Language Models (Applied to Mining)

Think of SGuard-v1 as a smart safety filter that sits in front of your AI systems used in mining operations. Whenever staff or contractors ask the AI something risky (for example about unsafe procedures, explosives, or bypassing regulations), SGuard-v1 checks the request and the AI’s response, and blocks, rewrites, or flags anything that could cause harm or violate safety and compliance rules.

Router/GatewayEmerging Standard
9.0

LLM Safeguards with Granite Guardian: Risk Detection for Mining Use Cases

This is like putting a smart safety inspector in front of your company’s AI chatbot. Before the AI answers, the inspector checks if the question or answer is unsafe (toxic, leaking secrets, non‑compliant) and blocks or rewrites it.

Router/GatewayEmerging Standard
9.0

DeepKnown-Guard Safety Response Framework for AI Agents

Imagine every AI assistant in your mining operation having a very strict, always-awake safety officer sitting on its shoulder. DeepKnown-Guard is that safety officer: it reviews what the AI agent wants to do or say, and blocks or rewrites anything that could be unsafe, non-compliant, or operationally risky.

Agentic-ReActEmerging Standard
8.5

Sandvik Autonomous Mining Robotics Programme Expansion

This is like turning huge underground mining machines into self-driving robots that can work on their own, guided by sensors and software instead of people sitting inside them.

Agentic-ReActEmerging Standard
8.5

MCP-RiskCue: LLM-Based Risk Inference from Mining Control System Logs

This is like giving a very smart assistant all the machine logs from a mine and asking it, "Do you see any signs that something risky or unsafe is about to happen?" Instead of humans manually sifting through cryptic system messages, the AI reads them, connects the dots, and highlights potential risks early.

RAG-StandardExperimental
8.5
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