Logistics & Supply Chain · Fleet maintenance prediction

A breakdown you didn't see coming already stranded a load today

Banao builds fleet maintenance prediction systems that flag vehicle failures before a breakdown strands a load — trained on your telematics, GPS, engine diagnostics, and service history, integrated into the fleet management tools your workshop already uses.

This is not a monitoring dashboard. It is a failure model with a maintenance schedule on the other end: a specific vehicle, a specific component, a specific window before failure probability crosses the threshold your ops team sets.

Indian Oil— predictive maintenance models deployed across a national tanker fleet.

What a fleet maintenance AI deployment includes

Predicting a failure is useful only if it reaches a maintenance planner in time to act. We build the full chain — model, schedule, and integration.

Component failure prediction

Models trained on your vehicle sensor data, OBD fault codes, service history, and telematics to flag brake, engine, tyre, and transmission failures before they happen — scored by failure probability and days-to-action, not just raw alert counts.

Maintenance schedule generation

AI-generated maintenance windows that align predicted failures with vehicle availability, workshop capacity, and parts stock — so vehicles come in before they break, not after a roadside incident burns the SLA.

Telematics ingestion pipeline

A data engineering layer that cleans and normalises GPS, CAN bus, fuel, idle, and fault-code streams from mixed-fleet hardware into a single feature store the prediction model can use consistently.

Fleet health dashboard

A live view of every vehicle's health score, upcoming maintenance obligations, and active failure alerts — built for ops managers and workshop planners, not data analysts.

Workshop and parts integration

Predictions feed directly into your fleet management system, workshop scheduler, or parts ordering workflow — no manual relay between the model output and the team that acts on it.

Driver behaviour signals

Hard-braking, over-revving, and excessive-idle patterns that accelerate component wear are surfaced per vehicle and per driver, giving fleet managers a corrective signal before the damage appears in a service bill.

Fleet AI already running on live operations

Metrics shown dotted (··) are being finalised in our case-study metrics pack — published only once verified.

Indian Oil

Predictive maintenance across a national tanker fleet

  • ··%unplanned breakdowns
  • ··%fleet utilisation
  • ··%maintenance cost per vehicle

Indian Oil moves fuel across one of India's largest distribution networks, where a tanker breakdown or a missed depot run costs more than the repair. Banao applies telematics and service-history models to flag vehicle failures before they become roadside incidents, integrated into the existing fleet management and workshop scheduling workflow.

We operate on our own AI before it reaches your fleet

Banao runs a ~300-person engineering company on its own AI products daily. InterviewGod screens every engineering hire before a human interview. Vikaas runs our own demand-generation pipeline from sourcing through to a booked call.

A prediction model that has to survive our internal operations is hardened before it reaches your fleet. We are not describing production AI from the outside — we depend on it every working day, and we hold a fleet maintenance model to the same standard.

  • InterviewGodScreens every Banao engineering hire before a human interview.
  • VikaasRuns Banao's own demand-gen pipeline, from sourcing to booked call.

When fleet maintenance AI doesn't pay back

Predictive maintenance is one of the most over-sold categories in logistics AI. We will tell you when the conditions aren't right:

  • Small fleet: below about 30–40 vehicles, the failure-rate base is too thin for a model to outperform a good workshop manager's judgment. A simpler rules-based alert is often the better call.
  • No telematics signal: a failure model needs some sensor or diagnostic stream — OBD, GPS, fuel records, fault codes. A paper-only maintenance history is a starting point for data engineering, not modelling.
  • No maintenance history at all: if vehicles have never had systematic service records, week one is history reconstruction, not model training. That is a different scope and a longer timeline than a standard build.

How we start — prove it before we build it

We don't quote a predictive maintenance system off a spec sheet. We look at your actual telematics and service data first.

  1. AI Discovery Sprint2 weeks · fixed price

    We audit a sample of your telematics, fault codes, and service history, test failure-signal strength on your vehicle types, and hand back a feasibility report and ROI maths — yours to keep whether or not you continue. If you proceed, the Sprint cost is credited against the build.

  2. Build

    Data engineering first: telematics ingestion, cleaning, and feature engineering as a deliverable. Then the failure model, maintenance schedule logic, and integration with your fleet management system and workshop tools.

  3. Production & continuous improvement

    Deployment with workshop-team override, a fleet health dashboard, and maintenance workflow integration. The model retrains on each new service event so accuracy improves as your fleet history grows.

Frequently asked questions

Yes. Mixed-instrumentation fleets are the norm. The Discovery Sprint maps what signal exists per vehicle class and what the model can do with it. Vehicles with richer telematics get more precise predictions; vehicles with only OBD or fault-code data get simpler, still-useful alerts. Retrofitting low-cost GPS and OBD loggers is sometimes part of the recommendation.

Failures the telematics can see: engine, brake, tyre wear, transmission, battery, and fuel-system faults are the most common targets. We train to the failure classes that actually ground your vehicles, not a generic list. The Discovery Sprint identifies which ones have enough signal and service history to model reliably.

Integration with your FMS, workshop scheduler, or ERP is a build deliverable, not a separate project. We have integrated with both enterprise fleet platforms and in-house spreadsheet-driven workflows — the output is a maintenance action in the tool your workshop team already opens, not another dashboard to check.

The Discovery Sprint produces the ROI model — breakdown cost avoided, maintenance labour saved, and parts procurement improvement — so you have the maths before committing the build budget. A typical path is a 2-week Sprint, a 6–8 week build, and a 4-week rollout, with measurable breakdown reduction in the first full quarter after deployment.

Mixed fleets are the norm, not the exception. We build per-vehicle-class models where the data supports it, and fall back to make-model-age groupings where it does not. The ingestion pipeline handles the heterogeneous signal formats — that is most of the data-engineering work in the first two weeks.

Find out how many breakdowns your data could have predicted

Bring your last 12 months of service records and whatever telematics you have. In 45 minutes we'll map the failure-prediction opportunity and the ROI maths behind it.

Book a 45-min scoping call