Evaluate with stronger evidence
Connect the claim to what happened in the field.
Telematics + Warranty Decision Intelligence
Connect what your products are telling you with the decisions your teams need to make. Use telematics and IoT data to evaluate claims, detect emerging quality issues, and guide technicians to the right repair.
For OEM warranty, claims, quality, and service leaders.

Connect the claim to what happened in the field.
Connect individual events to emerging fleet issues.
Connect the right diagnosis to the right intervention.
From connected data to connected decisions
A fault code is a starting point. Warranty Decision Intelligence adds the repair evidence, product knowledge, and policy context needed to determine what should happen next.
01 / Connect
02 / Interpret & decide
Answer • Decide • Act.
03 / Act
↶ Close the loop: confirmed repairs, inspection findings, and post-repair performance inform future decisions.
Connect authorized data from your existing telematics or IoT platform. Available decisions depend on signal coverage, integration scope, validated models, and your configured approval policies.
Six decisions that matter
With the right data feeds and decision models, Circuitry.ai can help teams move from reviewing events to resolving the work those events create.
Compare the complaint, cause, and correction with fault events, operating conditions, mileage or hours, and service history. Surface supporting evidence, inconsistencies, and gaps for the claim reviewer.
Identify deterioration patterns and prioritize inspection or maintenance. Use urgency, asset criticality, parts availability, and customer schedules to coordinate an authorized service action.
Look for repeated fault sequences across models, build periods, component variants, regions, or software versions. Rank investigation candidates by severity, affected population, and potential cost.
Give technicians the event timeline, likely causes, relevant service information, and recommended tests. Help distinguish component, wiring, sensor, calibration, and software issues before replacing parts.
Use digital evidence, failure patterns, supplier terms, and inspection value to recommend physical return, targeted testing, additional evidence, or an authorized no-return disposition.
Compare post-repair behavior with the original symptom and track recurrence. Link confirmed causes and inspection findings to claims, quality investigations, and supplier-recovery evidence.
A more complete claim story
Telematics becomes another piece of repair evidence, alongside diagnostics, photographs, video, technician notes, and log files. The value comes from interpreting those sources together.
Missing telemetry does not prove that a fault did not occur. A sensor alert alone does not establish coverage, causation, or grounds to deny a claim.
Available telemetry provides a baseline for the same asset.
Fan-command and speed signals diverge while a related fault is logged.
Idle testing differs from the conditions captured in the field.
The event history supports an intermittent symptom under load. The command/speed mismatch points to a diagnostic path; it does not establish the failed component.
Verify sensor readings, connections, power, and control signals.
Review applicable procedures and approved updates for the asset configuration.
Use approved procedures to test under relevant operating conditions.
Evaluate coverage, causal findings, and repair reasonableness together.
Monitor comparable assets and post-repair behavior; escalate a supported pattern.
Make the intermittent visible
Conceptual example. Return requirements remain governed by OEM policy, supplier terms, and applicable retention requirements.
Reduce No Trouble Found
A component that passes a bench test may have failed intermittently, or may never have been the cause. Sensor history helps teams ask better questions before replacement and return.
What your data can support
| Available data | What AI can help interpret | Decision it can support |
|---|---|---|
| DTCs, event logs & freeze frames | Fault sequences, recurrence, and conditions around a reported event | Claim corroboration, directed diagnosis, and additional evidence requests |
| Temperature, pressure, vibration & electrical signals | Abnormal behavior and deterioration relative to validated baselines | Condition-based maintenance, targeted testing, and impending-failure alerts |
| Mileage, hours, load & duty cycle | Usage context and exposure across comparable assets | Policy review, service timing, and fairer quality comparisons |
| Software versions & update history | Changes in fault behavior by release and product configuration | Software investigation, approved update eligibility, and repair guidance |
| EV battery & charging data | Temperature, cell imbalance, charging patterns, and degradation indicators | Battery diagnostics, component-level investigation, and coverage assessment |
| Build data, component identity & repair records | Concentrations by model, plant, batch, supplier, or previous repair | Affected-population analysis, quality prioritization, and supplier investigation |
| Post-repair signals & inspection findings | Whether symptoms recur and whether the suspected cause was confirmed | Repair verification, NTF learning, return disposition, and recovery evidence |
Capabilities are scoped to the data actually available. Predictive alerts need validated time-series or failure models; generative AI helps explain findings and retrieve relevant knowledge.
From one asset to an emerging issue
Measure decisions and outcomes
Begin with one product family, recurring fault, or claim population. Establish the baseline, compare AI-assisted decisions with expert review, and track outcomes through resolution.
Evidence completeness
Reviewer agreement
Review time and rework
Time to a validated issue
Alert precision
Detection-to-correction time
First-time fix rate
Repeat repairs
Unplanned downtime
NTF rate on inspected parts
Return and inspection cost
Warranty cost per unit
In your demo, identify the available signals, the evidence gaps, and the warranty or repair decision worth improving first.
Enterprise control, built into the journey
Scope connections to your telematics platform, data lake, warranty system, DMS, service tools, and quality processes. Use batch history or event feeds according to the decision’s needs.
Retain source evidence, timestamps, policy references, and decision history. Escalate uncertain, conflicting, or high-impact cases to the right expert.
Apply authorized access, customer data segregation, retention controls, and approval rules. Expand automation as evidence quality and measured performance support it.
Questions OEM leaders ask
No. Historical files, event-triggered records, and periodic feeds can support evidence review and trend analysis. Time-sensitive intervention requires sufficiently timely data. The initial use case determines the right integration and latency.
No. It contributes evidence. A claim decision also needs the applicable warranty terms, repair findings, and policy controls. Missing data or an unexplained alert should prompt an evidence request or review, not an unsupported denial.
The solution can be scoped around authorized APIs, event feeds, or data exports from your existing platform. Asset identifiers, signal definitions, timestamps, access rights, and history coverage are assessed during solution design.
No. Some faults are not instrumented, may not be captured, or still require physical inspection. The goal is to preserve useful field context, improve diagnostic choices, and make parts returns more targeted.
Evaluate models against confirmed failures and service outcomes for the relevant product population. Measure false alerts, missed failures, and useful lead time before enabling operational actions, then monitor performance as products and usage change.
See Warranty Decision Intelligence in action
Request a demo to explore how telematics and IoT evidence can improve warranty, quality, and repair decisions for your products.
Answer • Decide • Act.
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