AI Automotive Predictive Maintenance System

We design and deploy artificial intelligence systems: from prototype to production-ready solutions. Our team combines expertise in machine learning, data engineering and MLOps to make AI work not in the lab, but in real business.
Showing 1 of 1 servicesAll 1566 services
AI Automotive Predictive Maintenance System
Medium
~2-4 weeks
FAQ
AI Development Areas
AI Solution Development Stages
Latest works
  • image_web-applications_feedme_466_0.webp
    Development of a web application for FEEDME
    1161
  • image_ecommerce_furnoro_435_0.webp
    Development of an online store for the company FURNORO
    1041
  • image_logo-advance_0.png
    B2B Advance company logo design
    561
  • image_crm_enviok_479_0.webp
    Development of a web application for Enviok
    823
  • image_logo-aider_0.jpg
    AIDER company logo development
    762
  • image_crm_chasseurs_493_0.webp
    CRM development for Chasseurs
    848

AI-Powered Predictive Maintenance for Vehicles

Predictive maintenance in the automotive industry covers two areas: fleet management and automotive service networks (dealers, service stations). ML approaches reduce unplanned downtime by 25-40% and optimize maintenance costs by transitioning from interval-based to condition-based servicing.

Data Sources

CAN-bus and OBD-II telemetry:

can_data_channels = {
    'engine_rpm': 'OBD PID 0x0C',
    'vehicle_speed': 'OBD PID 0x0D',
    'coolant_temp': 'OBD PID 0x05',
    'engine_load': 'OBD PID 0x04',
    'fuel_trim_short': 'OBD PID 0x06',
    'fuel_trim_long': 'OBD PID 0x07',
    'intake_manifold_pressure': 'OBD PID 0x0B',
    'dtc_codes': 'OBD Mode 0x03',  # diagnostic fault codes
    'oil_temp': 'OEM extended PID',
    'transmission_temp': 'OEM extended PID'
}

Telematics devices (GPS + CAN): Teltonika, CalAmp, Webfleet Solutions (TomTom) — devices for fleets. Frequency: 1-10 sec. Data: coordinates + CAN parameters → cloud platform.

Dealer data:

  • Repair history by VIN (from DMS — Dealer Management System)
  • Warranty claims: repeat repairs = sign of incomplete fix
  • PDI (Pre-Delivery Inspection) data

Failure Prediction

Component-based approach:

Brake pads:

def brake_pad_remaining_life(brake_thickness_mm, driving_style_features,
                              road_conditions, mileage_km):
    """
    Regression model: residual brake pad life
    Features: thickness, driving aggression, urban percentage
    """
    features = np.array([
        brake_thickness_mm,
        driving_style_features['hard_braking_events_per_100km'],
        driving_style_features['avg_deceleration'],
        road_conditions['urban_pct'],
        mileage_km
    ])
    remaining_km = brake_wear_model.predict([features])[0]
    return remaining_km

Battery (12V and HV for EVs):

  • SoH (State of Health) from starting voltage and load
  • Internal resistance: grows with degradation
  • Cold cranking amps (CCA): failure prediction at low temperatures

Engine — early signs:

  • Long Term Fuel Trim > ±10% → rich/lean mixture
  • RPM fluctuations at idle → spark plugs, ignition coils
  • Compression loss → piston ring wear (requires compression test)

DTC analytics:

def dtc_risk_score(dtc_history, vehicle_profile):
    """
    DTC codes as degradation indicators:
    P0300-P0312: misfires → spark plugs/injectors
    P0420: catalytic converter below threshold
    U-codes: CAN-bus communication errors → wiring
    """
    recurring_dtcs = find_recurring(dtc_history, min_occurrences=2)
    risk_by_system = classify_by_system(recurring_dtcs)
    return risk_by_system

Fleet Management

Fleet telematics:

Daily health score per vehicle:

def fleet_vehicle_health(vehicle_id, last_7days_telemetry):
    features = aggregate_telemetry(last_7days_telemetry)

    # Behavior anomalies
    anomaly_score = isolation_forest.predict([features])
    # Component wear
    component_scores = {
        'brakes': brake_model.predict(features),
        'battery': battery_model.predict(features),
        'engine': engine_model.predict(features)
    }

    overall_health = np.mean(list(component_scores.values()))
    return {'health': overall_health, 'components': component_scores, 'anomaly': anomaly_score}

Maintenance optimization in fleet:

  • Calendar schedule: minimize simultaneous downtime (not >15% of fleet)
  • Just-in-time maintenance: when, not by mileage
  • Spare parts: pre-ordering based on replacement forecast → reduce storage costs

Automotive Service Network (Dealer Use Case)

Proactive Service Campaigns: OEM-dealer + telematics → proactively invite customer for service before problem appears:

  • "Your vehicle shows signs of brake pad wear. We recommend inspection at next service."
  • ML-model trigger → CRM task → email/SMS to customer

RO Prediction (Repair Order): Forecast needed work before visit. Service advisor sees recommended list before car arrives:

ro_prediction_features = {
    'vin': vehicle_id,
    'mileage': current_odometer,
    'last_service_items': last_ro_items,
    'telemetry_flags': active_dtcs + wear_flags,
    'months_since_last_visit': calendar_delta
}
predicted_ro = ro_model.predict_required_jobs(ro_prediction_features)

Parts Pre-Positioning: Based on aggregated RO forecasts for appointments next week — auto-order parts for dealer stockroom 2-3 days ahead.

Integration

DMS (Dealer Management System): CDK Global, Reynolds & Reynolds, 1С:Dealer — API for task and work order creation.

OEM platforms: Mercedes-Benz ME connect, BMW ConnectedDrive, ŠKODA Connect — branded telematics systems with open APIs for dealers.

Aftermarket: CARFAX, AutoVIN — enriching service history from independent sources.

Timeline: OBD-II connector + basic wear indicators + fleet dashboard — 4-5 weeks. ML component forecasting + DTC analytics + DMS integration + proactive campaigns — 3-4 months.