Syntora
AI AutomationFinancial Services

Build an AI-Powered Fraud Detection System

Yes, AI detects fraudulent claims more accurately by analyzing patterns invisible to human reviewers. It scores incoming claims for fraud risk in real-time.

By Parker Gawne, Founder at Syntora|Updated Mar 5, 2026

Syntora offers expertise in designing and building AI-powered fraud detection systems for insurance providers. Our approach focuses on developing tailored solutions that integrate with existing systems, leveraging advanced machine learning to identify suspicious claims. We prioritize honest capability and technical depth in our engineering engagements.

The complexity of an AI fraud detection system depends significantly on your existing data infrastructure and the quality of your claims data. A provider using structured claims data from an Agency Management System like Applied Epic presents a more direct implementation path. Organizations with key information embedded in adjuster note PDFs or legacy databases would require a more extensive initial data extraction and cleaning phase.

What Problem Does This Solve?

Most regional providers rely on manual review and simple checklists to spot fraud. This approach is inconsistent and misses sophisticated schemes. An adjuster reviewing a single claim cannot see that the same body shop and lawyer were involved in three other suspiciously similar claims over the past six months.

Agency Management Systems like Vertafore or HawkSoft offer basic, rule-based flagging. You can set a rule to flag any claim filed within 30 days of a policy's start date, but these static thresholds are easy for organized fraud rings to circumvent. They cannot analyze unstructured text in a claimant's statement or find hidden networks connecting seemingly unrelated claims.

Enterprise fraud platforms like Shift Technology or FRISS are too expensive and complex for a 20-person agency. They require six-figure annual contracts, a 6-month implementation project, and a dedicated team to manage. Their value proposition is built for massive scale, not the specific needs of a regional provider.

How Would Syntora Approach This?

Syntora's approach to building an AI-powered fraud detection system would begin with a discovery phase to understand your specific operational context, data sources, and integration requirements. We would work to establish a secure, read-only connection to your Agency Management System, whether it is Applied Epic, Vertafore, or HawkSoft, or other relevant data repositories. The initial step would involve extracting a historical dataset of claims, including both structured fields and unstructured text from documents like FNOL reports and adjuster notes. The Claude API would be used to parse unstructured text from these documents, extracting relevant entities and key phrases to create a structured dataset suitable for analysis. Syntora has built similar document processing pipelines using Claude API for clients in adjacent domains, such as extracting critical information from financial documents, and this pattern applies directly to insurance claims documentation.

From this structured data, Syntora's data scientists would engineer a rich feature set, designing variables that capture potential indicators of fraud. A graph database, such as Neo4j, would be employed to map and analyze complex relationships between claimants, vehicles, service providers, and other entities that might otherwise go unnoticed across your claims history. An XGBoost model would then be trained on this comprehensive dataset to generate a fraud score for each claim, typically ranging from 0 to 100. The model development and validation process typically involves iterative testing and refinement over several weeks, depending on data quality and the complexity of fraud patterns identified, requiring close collaboration with your domain experts.

The trained scoring model would be encapsulated within a lightweight FastAPI application and designed for deployment on a scalable cloud infrastructure, such as AWS Lambda. To integrate with your existing workflow, a new claim filed in your AMS could trigger this function via a webhook. The system would then process the claim data, return a calculated fraud score, and provide a plain-English explanation of the key factors contributing to that score directly back to your AMS. High-risk claims would be automatically flagged for review within the adjuster's dashboard, streamlining the identification process.

All predictions and model inputs would be logged to a Supabase database, providing a robust audit trail and a foundation for continuous model improvement. We would configure monitoring and alerting, using tools like AWS CloudWatch, to track critical operational metrics such as API latency and potential model drift. This proactive monitoring ensures the system's ongoing accuracy and responsiveness. Syntora's engagement would include the initial system design and build, thorough documentation, and knowledge transfer to your team, with options for ongoing support and model retraining as new data becomes available and fraud patterns evolve. Client collaboration, including access to subject matter experts and feedback on model output, would be essential throughout the project.

What Are the Key Benefits?

  • Flag Fraud in Milliseconds, Not Months

    New claims get a fraud score in under 500ms. Your adjusters see the risk level before they even begin their investigation, not after a lengthy manual audit.

  • A Fixed Project Cost, Not a Revenue Share

    We build and deploy the system for a one-time fee. You avoid the recurring per-claim or percentage-of-savings costs typical of enterprise fraud platforms.

  • You Receive the Full Source Code

    You get the complete Python source code in your private GitHub repository, plus a detailed runbook. You are not locked into a proprietary black-box system.

  • Alerts for Problems, Silence for Performance

    We configure PagerDuty alerts for critical failures like API downtime or a sudden accuracy drop. You only get notified about events that require actual attention.

  • Works Inside Your Existing AMS

    We build direct API connections to Applied Epic, Vertafore, and HawkSoft. The fraud score appears as a native field, meaning no new software for your team to learn.

What Does the Process Look Like?

  1. System Access & Data Audit (Week 1)

    You provide secure, read-only access to your AMS. We audit your historical data and deliver a Data Quality Report outlining the features available for the model.

  2. Model Training & Validation (Weeks 2-3)

    We build and test the fraud detection model. You receive a Model Performance Report detailing its backtested accuracy and precision on your own data.

  3. Deployment & Live Integration (Week 4)

    We deploy the scoring API and connect it to your AMS. We provide a staging environment for your team to test the workflow with sample claims data.

  4. Monitoring & System Handoff (Weeks 5-8)

    The system scores live claims while we monitor its performance. At week 8, we deliver the final source code and a detailed System Runbook for future maintenance.

Frequently Asked Questions

What does a custom fraud detection system cost?
Pricing depends on the number of data sources and the cleanliness of your historical claims data. An agency with clean data in a modern AMS like Applied Epic is on the lower end. Connecting to an on-premise system or parsing data from PDFs adds complexity and cost. We provide a fixed-price quote after the initial discovery call.
What happens if the AI model makes a wrong prediction?
The system is a decision-support tool, not a replacement for adjusters. Every prediction is logged, and high-scoring claims are routed for human review. If an adjuster overrides a model's flag, that feedback is logged to a Supabase table and used to retrain and improve the model every 90 days, reducing future errors.
How is this different from the built-in rules in our Vertafore AMS?
Vertafore's rules are static and based on simple conditions like claim value. Our AI model learns complex patterns from all your data, including unstructured adjuster notes. It can identify networks of related claims that simple rules would miss entirely, finding fraud rings that look like individual, low-risk claims when viewed in isolation.
How do you handle our sensitive policyholder and claims data?
We never store your raw claims data long-term. The live system processes data in-memory via AWS Lambda and only logs prediction metadata (claim ID, score) to Supabase. All data in transit is encrypted using TLS 1.2, and access is restricted via IAM roles. During development, we work with anonymized or synthetic data.
Can our adjusters understand why a claim was flagged?
Yes. We provide a plain-English reason for every high score. Instead of just a number, the system writes a note to the AMS like: 'Flagged: Claimant address matches a previously denied claim' or 'Flagged: Injury description is 95% similar to two other open claims.' This gives adjusters a clear starting point for their investigation.
What is the minimum amount of historical data we need?
We need at least 12 months of historical claims data, including a minimum of 100 confirmed fraudulent claims to train the model effectively. Without enough examples of actual fraud, the model cannot learn the relevant patterns. We verify data sufficiency during the Week 1 Data Audit before the main build begins.

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