Self-Inspection Claims Apps for iOS and Android

Summary

We build self-inspection claims applications for iOS and Android that move first notice of loss and the initial damage assessment from a scheduled adjuster visit onto the policyholder's own device. A policyholder signs in, opens a claim against an active policy, describes the damage, captures guided photos and video of the insured vehicle or property, submits the package and then follows the claim through triage, assignment and settlement. Work of this kind covers mobile engineering, media pipeline design, integration with carrier systems and the controls that regulated claims data demands.

The Challenge

Claims interaction volume is not flat. Storm seasons, renewal cycles and catastrophe events produce sharp peaks that field schedules cannot absorb, so a mobile intake path has to be dependable exactly when the surrounding estate is under the most strain. That makes the media pipeline, rather than the user interface, the part of the system most likely to fail.

The constraints stack up quickly. Loss sites frequently have poor or no connectivity, so an application that assumes a live session loses evidence. Uploads treated as a single request die when the operating system suspends or terminates the application. A bare camera with no capture guidance produces media an adjuster cannot use. Retries after a timeout create duplicate claims that somebody then reconciles by hand. Claims data is personal and sometimes health-adjacent, handled under state insurance regulation and general privacy law, so anything written carelessly to the device becomes a disclosure problem. Naive builds also duplicate underwriting rules on the handset, where they drift from the back end, ignore accessibility, and offer no route back to a human adjuster.

The Solution

Cross-platform application core

We build these as cross-platform React Native applications over a carrier-facing claims API, with a predictable state container such as Redux or MobX holding normalized policy, claim and attachment entities. The application is offline-first: a draft claim and its media live in a local encrypted store, and an outbound queue drains when connectivity returns.

Guided capture and resilient upload

The camera layer matters more than any other screen. It needs:

• capture overlays that tell the user what angle and distance are required;
• on-device quality checks for blur, exposure and framing;
• compression that reduces payload without destroying the evidentiary detail an adjuster relies on;
• chunked, resumable uploads running through a background transfer mechanism, so a suspended or terminated application still finishes the transfer.

Integration with the carrier estate

The application is a thin edge on a much larger estate. It validates coverage and pulls insured objects from the policy administration system, creates and updates the record in the claims management system, moves binaries to a document and media store through short-lived pre-signed URLs rather than proxying them through the API, and authenticates against an identity provider over OIDC. Payloads are best aligned to ACORD structures so the claim stays portable downstream. Every media item carries capture metadata such as timestamp and geolocation, which feeds fraud triage, and claim creation is idempotent, keyed by a device-generated identifier.

Security, compliance and load

The architecture assumes hostile conditions: TLS with certificate pinning, secrets and drafts held in Keychain and Keystore rather than plain files, no claim media written into the shared camera roll, biometric re-authentication for sensitive actions, session timeouts, and an audit trail recording who captured and submitted what. Retention rules are honoured on the device as well as the server, and ingestion autoscales with backpressure and a queue that degrades gracefully instead of dropping submissions.

How the build runs

We work contract-first, agreeing the API schema and running the mobile application against mocked responses so mobile and back-end tracks progress in parallel. Testing covers a real device matrix weighted toward low-end Android hardware, network shaping that simulates degraded connectivity, and automated end-to-end runs. Releases go out in staged rollouts with crash and ANR monitoring, and platform SDK deadlines are scheduled work.

What This Delivers

Routine, well-documented losses arrive through a channel policyholders can use themselves, which leaves adjuster attention for the complex ones. Evidence comes in structured, complete and usable the first time, so triage is not stalled waiting for a repeat visit. Capture metadata supports fraud review, and the intake path holds up when volume spikes.

Technologies and Tools

• React Native for iOS and Android, with React on shared web surfaces
• Redux or MobX for normalized application state
• Native camera, background transfer, Keychain and Keystore APIs
• OIDC identity providers, ACORD-aligned payloads and pre-signed media storage
• Policy administration and claims management system integrations