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    TransportDiscovery / in progress

    Bulk-liquid planning

    One tanker down. What happens to today’s fuel dispatch plan?

    We’re building an internal AI planning system for a large fuel carrier serving mining operations. Connected data and reliable feasibility checks come first. The planning engine calculates, the LLM explains, and the dispatcher makes the final allocation.

    Discuss complex transport planning
    Illustrative bulk-liquid tanker fleet and transport planning supervisor
    10xGrowth Labs / TransportBulk-liquid planningAI fuel dispatch planning · Mining deliveries
    Illustrative setting · Not a customer photograph

    Inside Bulk-liquid planning

    Supplied product presentation. Demonstration data, not customer results.

    FleetPro Dip Forecasting Engine configuration prototype showing tank levels, reorder thresholds, daily use and priority alerts
    Sector
    Transport
    Story status
    Discovery / in progress
    Focus
    AI fuel dispatch planning · Mining deliveries

    See the story in motion

    AI for transport fuel management

    Explore the fuel-management and dispatch ideas shaping this FleetPro development project.

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    AI for transport fuel management video preview

    01 / The challenge

    Start with the work,
    not a feature list.

    The nearest tanker isn’t always the right choice. Which site needs fuel first? Which driver meets the site requirements? Which tanker and prime mover can handle the load—and make the loading slot and delivery window? One allocation can change the entire dispatch plan.

    The large fuel carrier collects from suppliers like Ampol, Mobil and Viva Energy and delivers to mining sites, including BHP and Rio Tinto operations. In that environment, proximity alone does not determine the right allocation. A driver must meet the site requirements, the tanker and prime mover must suit the load, and the combination must reach both the loading slot and delivery window. We’re building an internal planning system to bring those dependencies together while keeping operational judgement with the dispatcher.

    02 / The approach

    AI fuel dispatch planning · Mining deliveries

    1. 01Connect demand and resources
    2. 02Calculate feasible combinations
    3. 03Explore what-if scenarios
    4. 04Explain options
    5. 05Dispatcher allocation

    Proposed process visual — not a deployed customer workflow.

    01

    Start with the dip-forecasting picture. The supplied configuration prototype brings tank levels, reorder thresholds, daily consumption and delivery history into one view. Urgent replenishment needs and anomalous readings are surfaced for review before they shape a delivery task.

    02

    Connect demand to the weekly delivery plan. The supplied planning screen links deliveries with driver and vehicle combinations, showing work alongside workshop slots, rest breaks and fatigue indicators. The next step is to validate the operational checks against the carrier’s requirements.

    03

    Build towards connected scenario planning. Gearbox, MTData and Xero integrations are in development. Reliable demand and resource inputs form the foundation for tanker-unavailable scenarios and multi-delivery optimisation, with the planning engine calculating, the LLM explaining and the dispatcher allocating.

    The system being built

    Three layers. Calculations first. Explanations second.

    The system we’re designing separates connected data, operational feasibility and what-if explanations. The planning engine handles calculations and feasibility checks. The LLM explains the options. The dispatcher makes the final allocation.

    1. 01 / Connect the operational data

      Connect fuel demand, driver rosters, qualifications and equipment availability. Bring site requirements, load details, loading slots and delivery windows into the planning context so allocation starts with the information the job actually needs.

      Output: a connected view of demand and resources

    2. 02 / Check feasible combinations

      The planning engine calculates which driver, tanker and prime-mover combinations are operationally possible. It checks the relevant requirements and timing constraints; the LLM does not replace these calculations or decide feasibility.

      Output: operationally feasible options for review

    3. 03 / Explore “what if?”

      Let the dispatcher ask: “If this tanker becomes unavailable, what happens to today’s plan?” The planning engine evaluates the changed scenario, the LLM explains the options and knock-on effects, and the dispatcher makes the final allocation.

      Output: explained scenarios and dispatcher-led decisions

    Integrations in development

    Gearbox
    Planned maintenance and equipment-readiness context, subject to available records, access and agreed scope.
    MTData
    Planned vehicle and telematics context, subject to permissions, supported data and freshness checks.
    Xero
    Planned accounting handover for authorised users; exact records, approvals and synchronisation scope require validation.

    The product in practice

    A closer look at the workflow.

    Supplied product visuals show the capabilities discussed in this story. Screen counts are demonstration data, not measured business results.

    Dip forecasting · Configuration prototype using sample data. Tank levels, reorder thresholds and anomaly flags bring replenishment priorities into view.
    Delivery planning · Configuration prototype using sample data; driver names anonymised. Deliveries, equipment, workshop slots and rest breaks share one weekly view.

    03 / The operational opportunity

    Help dispatchers understand which combinations are possible—and what changes when a tanker becomes unavailable.

    See replenishment priorities sooner

    The dip-forecasting prototype displays current levels, reorder thresholds, daily use and delivery history, with urgent tanks and data anomalies highlighted for review.

    Bring deliveries and resources together

    The weekly delivery-plan prototype places tasks alongside driver and vehicle combinations, workshop schedules, rest breaks and fatigue indicators.

    See the knock-on effects

    The system is being designed to explore how losing a tanker changes today’s plan, not simply suggest the closest replacement.

    Keep allocation with the dispatcher

    The planning engine handles calculations and feasibility checks. The LLM explains the options. The dispatcher makes the final allocation.

    Build towards multi-delivery optimisation

    Connected demand, dependable checks and scenario planning form the foundation for the next stage: optimisation across multiple deliveries.

    What to measure next.

    These are review questions for evaluating the workflow, not achieved KPIs. Baselines and measured outcomes have not been supplied for publication.

    Planning inputs
    Are demand, rosters, qualifications and equipment availability complete enough to check the job?
    Operational feasibility
    Can the combination meet the site requirements, loading slot and delivery window?
    Disruption visibility
    When a tanker becomes unavailable, can the dispatcher understand the effects on today’s plan?

    04 / Project summary

    From tank levels to a workable delivery plan.

    We’re configuring FleetPro around a large fuel carrier’s mining-delivery workflow, connecting the question “Which tank needs fuel next?” with “Which driver and vehicle combination can deliver it?”

    The dip-forecasting and weekly delivery-planning prototypes make the work tangible: replenishment priorities, resource combinations, workshop schedules and rest breaks in a shared planning picture.

    The development roadmap connects these modules with Gearbox, MTData and Xero, then extends the planning engine into disruption scenarios and multi-delivery optimisation. The dispatcher stays in control of allocations.

    A similar challenge?

    Let’s talk about your workflow.

    Work with our Adelaide-based team to identify the information, decisions and handovers your software needs to support.

    Discuss complex transport planning