Mining, oil and gas, refining and process infrastructure

Reduce turnaround discovery overruns. De-risk FIFO rosters and protect asset margins.

In heavy industry, multi-million-dollar losses rarely stem from a single fault. They emerge from disconnected operations. JanusKS links work orders, scheduling networks, remote workforce logistics and asset health into an active Heavy Industry Knowledge Graph, so you can resolve scheduling collisions and enforce safety guardrails.

Turnaround recovery planning
Assess newly discovered work and compare options for resequencing critical-path work packs to help reduce contractor idle time and standby costs.
Fatigue and statutory compliance
Deterministic guardrails check rosters for breaches across complex FIFO and DIDO swings.
Synchronized work-pack readiness
Automatically aligns permits, scaffolding, rigging and parts staging to maximize on-face wrench time.
Air-gapped and remote ready
Full sovereign intelligence deployed directly at remote mine sites, offshore platforms and processing plants, with no dependency on cloud connectivity.

Heavy operations are fractured across siloed systems.

Plant managers, turnaround directors and logistics superintendents work under relentless constraints. When operations rely on isolated spreadsheets, static Gantt schedules and disconnected maintenance modules, small friction points quickly compound into operational stoppages.

Where traditional industrial systems break down

  1. 1

    STO discovery cascades

    Unplanned repairs derail the critical path while trades sit on paid standby.

  2. 2

    FIFO logistics logjams

    Flights, camp beds and shift rotas managed in silos lead to empty seats and crew gaps.

  3. 3

    Cumulative fatigue

    Emergency call-ins compromise safety and trigger stop-work risk.

  4. 4

    Low tool-time friction

    Trades reach the job face only to find missing permits, tags or crane access.

  5. 5

    The production vs maintenance war

    Sweating degraded assets to hit quarterly output risks catastrophic, multi-week emergency outages.

What that looks like on site.

  • The shutdown and turnaround (STO) discovery cascades

    The pain point

    During a multi-week plant overhaul (such as an oil refinery hydrotreater, mining grinding mill reline or smelter rebuild), opening isolated vessels inevitably uncovers unpredicted wear, pipe thinning or refractory failure.

    The operational breakdown

    Updating schedules and rebalancing resources after unexpected work is discovered can require substantial manual effort. While planners revise dependencies and assignments, affected contractors may remain on paid standby, adding costs and putting pressure on outage budgets.

  • FIFO logistics friction and camp allocation logjams

    The pain point

    Remote assets operate as isolated micro-cities dependent on fly-in fly-out (FIFO) and drive-in drive-out (DIDO) shift rotations running intensive swings (such as 2-and-1 or 8-and-6).

    The operational breakdown

    Charter flights are tracked in one system, village accommodation rooms in another, and trade qualifications in standalone spreadsheets. A single commercial airline cancellation cascades into double-booked camp quarters, empty aircraft seats (“deadheads”) and missing statutory trade coverage on site.

  • Compounding workforce fatigue and statutory safety breaches

    The pain point

    Industrial regulators (such as national mining safety inspectorates and offshore safety bodies) enforce strict limits on consecutive shifts, mandatory reset breaks and maximum night-work hours.

    The operational breakdown

    When unexpected absences hit, supervisors scramble to call in available operators without visibility into their trailing 28-day workload. Fatigue compounds, increasing the risk of high-potential safety incidents, vehicle collisions and sudden statutory stop-work notices.

  • Poor work-pack coordination and low tool time

    The pain point

    Across heavy maintenance, technicians can lose valuable hands-on maintenance time waiting for permits, equipment access, tools or materials.

    The operational breakdown

    Materials are tracked in enterprise ERPs (SAP PM / Maximo), access permits in safety databases, and mobile cranes in plant equipment logs. Specialist crews arrive at the workface only to discover the scaffolding certification tag has expired, isolation permits are unsigned, or replacement parts remain trapped in the warehouse.

  • The production vs maintenance tug-of-war

    The pain point

    Operations teams are incentivized to maximize daily throughput, while maintenance teams are responsible for equipment reliability and long-term asset health.

    The operational breakdown

    When commodity prices spike, operators delay preventative outages. Without mathematical models to quantify accelerated wear curves, machines run past design margins until critical components fail catastrophically under load, turning an 8-hour service into a multi-week shutdown.

How JanusKS solves industrial friction.

From siloed plant systems to de-risked turnarounds and ready crews.

  1. Ingest

    Integrated ingest

    • SAP PM / Maximo
    • P6
    • Telemetry
    • Camp bookings
    • Safety regimes
  2. Model

    Heavy industry ontology

    • Assets
    • Work packs
    • FIFO swings
    • Permits
    • Spares and tooling
  3. Simulate

    Predict and simulate

    • Critical-path resequencing
    • Camp caps
    • Fatigue thresholds
  4. Outcome

    Operational certainty

    • De-risked turnarounds
    • Fatigue-checked rosters
    • Maximized wrench time

The unified industrial knowledge graph

Map the living relationships across plant equipment, supply lines and site crews.

Move beyond static relational rows and isolated maintenance tickets.

  • Maps physical dependencies between major equipment trains (crushers, autoclaves, distillation columns), auxiliary infrastructure (lube skids, switchgear) and active lock-out/tag-out (LOTO) boundaries.
  • Binds work packs directly to prerequisite site conditions: crane availability zones, gas-testing clearance, environmental permits and emergency response teams.
  • Reveals hidden operational dependencies across plant zones before crews deploy to the field.

High-velocity turnaround (STO) simulation

Absorb scope discovery without missing critical restart milestones.

  • Zero-copy branching

    When discovery scope emerges, planners can spin up parallel simulation sandboxes without duplicating database records or disturbing active site operations.

  • Algorithmic critical-path leveling

    Constraint solvers compare recovery sequences against configured requirements, including shift changeovers, crane lifting windows and applicable curing times, to help planners assess feasible options.

  • Controlled merge to live

    Once project leadership approves an updated sequence, JanusKS updates live operational displays and writes milestones back to enterprise scheduling tools.

Dynamic FIFO rostering and fatigue risk governance

Synchronize personnel travel, camp accommodation and safety compliance.

  • Constraint-enforced scheduling

    Solvers validate prospective rosters against fatigue guidelines (hours worked, night-shift spacing, rest breaks) and site-specific safety regulations.

  • Logistics alignment

    Matches planned rosters against camp accommodation caps and flight manifests, reducing double-bookings and costly chartered deadheads.

  • Automated competency verification

    Verifies mandatory licenses (such as high-voltage switching, rigging and confined-space entry) against task requirements before crew mobilization.

Synchronized work-pack readiness

Ensure trades, tools, permits and materials converge at the job face together.

  • Prerequisite verification

    Flags tasks on the critical path whose prerequisites, such as material clearance, scaffolding inspections or crane access, are not confirmed 24 to 48 hours prior.

  • Closed-loop isolation coordination

    Synchronizes permit-to-work issuance with shift handovers, cutting hours spent waiting for manual isolations at shift start.

  • Resource conflict resolution

    Flags shared equipment bottlenecks (such as dual demand for a 200-ton mobile crane) before crews arrive on site.

Bi-temporal asset health and outage planning

End the conflict between production yield and asset integrity.

  • Sensor and telemetry fusion

    Integrates continuous SCADA and IoT streams (vibration, heat, pressure) into the historical asset graph to track true wear progression.

  • Empirical degradation modeling

    Reconstructs historical operating data to identify the point where deferring maintenance increases the statistical likelihood of catastrophic failure.

  • Opportunistic maintenance windows

    Suggests low-impact inspection opportunities during planned operational slowdowns or downstream bottlenecks.

Comparing approaches: conventional systems vs JanusKS

Operational focus areas compared: traditional industrial management and the JanusKS IDSS platform
Operational focusTraditional industrial managementThe JanusKS IDSS platform
STO scope discoveryPlanners manually revise schedules as new work emerges, while affected trades may remain on paid standby.Spin up zero-copy sandboxes; constraint solvers compare resequencing options to help protect the restart date.
FIFO and camp logisticsFlights, room allocations and roster rotas managed in separate spreadsheets, causing overbookings and empty seats.Unified spatiotemporal graph synchronizes travel manifests, camp bed capacity and site coverage automatically.
Fatigue managementSupervisors manually review punch-clocks after shifts are completed; fatigue risks discovered too late.Continuous constraint validation flags impending fatigue limit breaches before shifts are assigned.
Work-pack stagingSpecialized trades arrive at equipment only to find missing permits, expired scaffolding tags or delayed parts.Dynamic prerequisite tracking helps parts, permits, staging and trades arrive at the workface together.
Maintenance vs productionMaintenance schedules continually pushed back to hit short-term production quotas, risking catastrophic failure.Historical degradation modeling calculates the actual operational risk of delayed maintenance, grounding choices in data.

Industrial security, sovereignty and remote resilience

Heavy industry, mining assets and energy networks represent critical national infrastructure (CNI), subject to demanding security standards and remote operating conditions.

  • Offline and air-gapped deployment

    Deploy the complete graph database, solver engine and private runtimes directly on-premises at remote mine sites, offshore platforms or secure industrial facilities, operating independently of public internet connections.

  • No variable cloud costs

    Simulation runs, continuous anomaly detection and automated schedule evaluations run on dedicated local hardware with no per-token SaaS fees.

  • Industrial cybersecurity alignment

    Built to support corporate compliance with critical infrastructure standards, including IEC 62443, NIST SP 800-82 and the Australian Security of Critical Infrastructure Act (SOCI).

  • Defensible human-in-the-loop governance

    Autonomous solvers surface recommendations, calculate risk trade-offs and highlight schedule conflicts, while final operational approvals, plant restarts and procurement commitments stay firmly with human engineers.

Achieve operational certainty across your critical assets.

Give your plant managers, turnaround superintendents and logistics directors the tools to reduce turnaround delays, support workforce safety and safeguard asset availability.