How to Choose the Right Telematics Partner: 6 Criteria That Really Matter in 2026

Introduction

The success of a connected‑insurance program depends on the telematics solution used to collect and analyse driving data. Traditionally, insurers partner with a telematics service provider (TSP) that supplies a dedicated telematics Software Development Kit (SDK).

The TSP is responsible for both data collection and data processing. Raw driving signals are transformed into behavioural indicators that insurers use for pricing, risk assessment, and road safety.

When evaluating telematics providers, insurers should carefully assess six key criteria:

• The resources available for testing the solution,

• The performance and reliability of the mobile SDK,

• The quality and completeness of the technical documentation,

• The frequency and consistency of product updates,

• The responsiveness and expertise of technical support,

• The methods and flexibility offered for accessing data.

Resources for testing the solution

First, it is critical to evaluate each provider’s SDK in real‑life conditions. To avoid any initial development work, the telematics providers must offer a ready‑to‑use demo application built on top of their telematics SDK. The demo app allows you to assess the onboarding experience, the performance of the technology, and the overall user journey. In particular, insurers should examine how the app handles:

• requesting and obtaining the necessary permissions to access the phone’s sensors,

• recording trips reliably,

• displaying driving data clearly and consistently.

A provider should give you quick and easy access to such a demo application. For a thorough and meaningful evaluation, we recommend involving around five people from your organization and running tests on both iOS and Android devices.

Performance of the telematics SDK

Three key factors determine the robustness and reliability of a telematics SDK:

• A reliable telematics SDK should automatically detect and record all motorised trips (read this guide to learn more about how automatic trip detection works). This is a critical feature for any connected program, as trip data is required to perform road risk analysis, to personalise premiums and to enable crash detection. 

• Battery consumption needs to be marginal to prevent any user friction. Optimized battery consumption is a requirement to boost user adoption and minimize complaints from motorists. 

• Data usage should be minimal too as drivers will not keep an app that drains their data plan. Low data consumption is a critical requirement in countries where mobile data allowances are limited and/or expensive.

Technical documentation

A detailed technical documentation should be available for any telematics SDK, as a well‑documented product is often a strong indicator of overall solution quality. Good documentation simplifies integration, improves understanding, and helps developers troubleshoot issues when implementing the telematics SDK in a mobile application.

The documentation should be freely accessible and should contain:

• clear, step‑by‑step instructions for installing, using, and integrating the SDK,

• a complete description of the SDK’s features, methods, and parameters,

• code examples and practical guidance to help developers integrate the SDK quickly,

• a changelog detailing updates and new features, enabling teams to take full advantage of the latest versions.

The more widely integrated the SDK is, the better it tends to perform, since technical improvements, new capabilities, and bug fixes are shared across all customers.

Update frequency

A reliable telematics SDK must be updated regularly because the underlying technologies evolve quickly:

• updates to iOS and Android operating systems,

• changes to App Store Connect and Google Play Console requirements,

• deployment of new features,

• bug fixes,

• improvements based on user feedback,

• security updates.

In general, a reliable telematics SDK should follow a consistent release cycle, with updates at least once a month. You should also ensure that the SDK is updated immediately after major iOS and Android releases (typically in September), so that your mobile application remains fully compatible with the latest versions of both operating systems.

Technical support

A telematics SDK is a complex technology that often requires expert assistance to ensure smooth integration into an existing mobile application. This support should be provided directly by the telematics service provider, as it plays a crucial role in the successful deployment of the solution.

• Mobile developers who primarily work on user interfaces may find telematics unfamiliar, particularly when it comes to managing sensors, background processes, and the permissions required for a telematics application to function correctly.

• A telematics SDK also includes numerous configuration options, and proper guidance is essential to make the most of its capabilities.

• Finally, the SDK produces rich and highly specific data that must be well understood in order to be displayed correctly within the app’s user interface. Clear explanations and expert support help development teams interpret this data and integrate it effectively. 

Methods for accessing data

The primary role of a telematics solution is to generate driving‑behaviour indicators. These indicators are used directly to assess risk levels, calculate personalised insurance premiums, and support claims management. This is why the methods used to access this data are so critical.

The first aspect to consider is processing time. Analysis results and driving indicators must be available immediately after a trip or an accident :

• For trip analysis, it is important that drivers can access their results as soon as the journey is completed. In some cases, trip data may also be processed on the insurer’s platform to enrich or complete the analysis.

• For an assistance solution, accident data must be transmitted extremely quickly, as it may be used to trigger an alert and support real‑time decision‑making by an operator. (learn more on automatic crash detection).

The second aspect concerns the nature of the data itself. A telematics provider must be able to deliver not only the processed indicators resulting from the analysis, but also the raw data recorded by the phone’s sensors, as well as any intermediate data (such as filtering steps, anomaly corrections, or map‑matching projections).

The third aspect concerns the methods used to access the data. A provider’s solution should offer several ways to retrieve driving indicators and collected data:

• directly from the mobile SDK, ideally with data already synchronized in a local database. This enables instant access for displaying results within the mobile application.

• via web services, allowing your platform to retrieve trip or accident data programmatically.

• through a web administration interface, providing clearly presented results and management features such as user search, trip visualization, and score history.

Conclusion

For insurers, the quality of the telematics SDK is inseparable from the quality of the insurance product itself. Accurate scoring, personalised pricing, and effective claims management all depend on the reliability of the underlying telematics solution. A best‑in‑class SDK must therefore combine strong detection performance, efficient energy usage, clear documentation, regular updates, and expert guidance. By applying these evaluation criteria, insurers can confidently select a long‑term telematics provider and build a connected insurance program that is scalable, future‑proof and delivers a seamless user experience.