Prompt
How do I set up a document processing agent for claims intake with human review and structured data capture?
Latest observation
Here’s a practical way to set up a document processing agent for claims intake that combines OCR/document understanding, structured extraction, and human review.
1) Define the intake workflow
A common claims flow looks like this:
-
Receive documents
- Email attachments
- Portal uploads
- Scanned paper/PDFs
- Photos of forms or damage
-
Classify the document
- Claim form
- ID card
- Medical bill
- Police report
- Repair estimate
- Supporting evidence
-
Extract structured fields
- Claimant name
- Policy number
- Date of loss
- Incident type
- Provider/vendor
- Amounts, diagnosis/procedure codes, etc.
-
Validate
- Required fields present?
- Values in expected formats?
- Cross-document consistency?
-
Route for human review
- Low-confidence extractions
- Missing critical fields
- Conflicting values
- Fraud/red-flag cases
-
Commit to downstream systems
- Claims system / CRM / case management
- Audit log
- Notifications
2) Use a 3-layer architecture
A strong design is:
A. Ingestion layer
Handles file intake and normalization.
- Accept PDF, TIFF, JPG, PNG, DOCX
- Convert pages to images if needed
- Split multi-page files
- Store originals in object storage
B. Extraction/agent layer
This is the “document processing agent.”
- OCR + layout detection
- Document classification
- Field extraction into a schema
- Confidence scoring
- Reasoning over multiple documents in the claim packet
C. Review/orchestration layer
- Human-in-the-loop UI
- Exception queues
- Audit trail
- Final approval and export
3) Define the data schema first
Before building extraction, define exactly what you want to capture.
Example claims intake schema:
{
"claim_id": "",
"claimant": {
"full_name": "",
"date_of_birth": "",
"address": "",
"phone": "",
"email": ""
},
"policy": {
"policy_number": "",
"carrier": "",
"coverage_type": ""
},
"incident": {
"date_of_loss": "",
"incident_type": "",
"location": "",
"description": ""
},
"documents": [
{
"type": "",
"filename": "",
"page_count": 0
}
],
"financials": {
"billed_amount": 0,
"paid_amount": 0,
"currency": ""
},
"extraction_meta": {
"confidence": 0,
"needs_review": false,
"issues": []
}
}
Good practice:
- Mark fields as required / optional
- Add validation rules
- Track source document and page number for each extracted field
- Keep confidence scores per field, not just per document
4) Choose extraction methods
Typically you’ll combine several methods:
OCR
For text extraction from scans/images.
- AWS Textract
- Azure Document Intelligence
- Google Document AI
- Tesseract for open-source baseline
Document classification
Determine what type of document each file is.
- Rules based on keywords
- ML classifier
- LLM-based classification using page text
Structured extraction
Use either:
- Template-based extraction for standardized forms
- ML/doc AI for semi-structured docs
- LLM extraction for flexible forms and narrative docs
A useful pattern:
- OCR first
- Then ask the agent to map text to your JSON schema
- Require citations to page/line/snippet if possible
5) Add human review where it matters
Don’t send everything to a human. Route only exceptions.
Common review triggers
- Confidence below threshold
- Missing mandatory fields
- Multiple possible values
- Handwritten sections unreadable
- Unusual amounts or dates
- Policy number format invalid
- Incident date after claim date
Review UX
Human reviewers should see:
- The document viewer
- Highlighted extracted fields
- Confidence scores
- Suggested values
- Editable structured form
- Source snippet for each field
Human actions
- Approve
- Correct
- Reject
- Escalate
- Mark as fraud/suspect
- Add notes
Those corrections should feed back into your system for improvement.
6) Implement orchestration logic
A simple control flow:
- Upload document
- Run OCR
- Classify document type
- Extract fields
- Validate against rules
- If confidence high and validation passes:
- Auto-accept
- Else:
- Send to review queue
- After review:
- Persist final structured claim record
- Log all changes
Pseudo-logic:
result = process_document(file)
if result.confidence >= 0.9 and not result.validation_errors:
status = "auto_approved"
else:
status = "needs_human_review"
send_to_review_queue(result)
save_claim(result, status)
7) Use a robust validation layer
This is essential for claims intake.
Examples
- Policy number matches expected format
- DOB not in the future
- Date of loss not after submission date
- Currency consistent
- Amounts non-negative
- Provider NPI/license valid if applicable
- Claimant name matches policyholder records
Validation can also compare across documents:
- Claim form says accident date = Jan 3
- Police report says Jan 4
- Flag discrepancy
8) Build for traceability and audit
Claims workflows usually need auditability.
Store:
- Original documents
- OCR output
- Extracted JSON
- Confidence per field
- Reviewer edits
- Timestamps
- Model/version used
- Decision rationale
This helps with:
- Compliance
- Appeals
- QA
- Model debugging
9) Improve the agent with feedback loops
Each human correction is training data.
Track:
- Field-level error rates
- Document-type error rates
- Common validation failures
- Reviewer override frequency
- Time to resolution
Use this to:
- Update prompts
- Improve templates
- Fine-tune classifiers
- Adjust review thresholds
10) Recommended implementation stack
A typical modern stack:
Backend
- Python / FastAPI
- Queue: Celery, SQS, RabbitMQ, Kafka
- Storage: S3 / Blob Storage
- Database: Postgres
Document AI / OCR
- AWS Textract, Azure Document Intelligence, or Google Document AI
- Optional fallback OCR: Tesseract
LLM layer
- For flexible extraction, summarization, normalization
- Use structured output / JSON schema enforcement if available
Review app
- React frontend
- PDF viewer with field highlighting
- Reviewer queue and annotations
Observability
- Logs, metrics, tracing
- Extraction confidence dashboards
- QA sampling
11) Practical safeguards
For claims processing, include:
- PII encryption at rest and in transit
- Role-based access control
- Redaction for non-privileged users
- Prompt/output filtering for sensitive data
- Rate limiting and retry handling
- Deterministic schema validation
- Versioned prompts and models
12) Suggested MVP plan
If you want to get started quickly:
Phase 1: MVP
- Upload documents
- OCR
- Extract 10–20 key fields
- Human review queue
- Export JSON/CSV
Phase 2: Scale
- Add document classification
- Add confidence scoring
- Add cross-document reconciliation
- Add reviewer analytics
Phase 3: Automation
- Auto-route low-risk claims
- Fraud/anomaly flags
- Continuous learning from reviewer corrections
13) Example field set for claims intake
For a standard intake packet, start with:
- Claim number
- Claimant full name
- Policy number
- Date of loss
- Incident type
- Contact info
- Address
- Provider/vendor name
- Invoice amount
- Coverage type
- Document type
- Source page
- Confidence score
If you want, I can also provide:
- a reference architecture diagram,
- a sample JSON schema for claims intake, or
- a Python/FastAPI skeleton for the agent and review queue.
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