Skip to main content

Intelligent Automation

Automate the work rules-based tools never could

Invoices, contracts, emails, claims — we automate unstructured-data workflows that traditional RPA breaks on, with accuracy you can audit.

What is intelligent automation?

Intelligent automation uses language and vision models to read unstructured inputs — PDFs, scans, emails, photos — extract structured data, apply business rules, and write results into your systems. Unlike rules-based RPA it does not break when a document layout changes. ChainCraft Global builds these pipelines with confidence scoring so uncertain items route to a human queue rather than passing silently, typically reaching 95–99% field-level accuracy and 80–95% straight-through processing within 6 to 10 weeks.

Straight-through processing (STP) rate
The percentage of items that pass from intake to completion with no human involvement. It is the single number that determines the economics of a document automation project. An 88% STP rate on 10,000 monthly claims means 1,200 items still need a person — so the review queue design matters as much as the extraction accuracy. STP is always reported alongside accuracy, because a system can achieve high accuracy by escalating almost everything.

Overview

What this service is

Classic automation fails the moment a document changes format. We use language models to read, extract, classify, and decide across messy real-world inputs, wrapped in validation layers that catch low-confidence cases for human review.

The shift that makes this work is that a language model does not need a template. A rules-based extractor is told the invoice number sits 40 millimetres from the top-left corner; a model is told what an invoice number is. When a supplier redesigns their invoice — which happens constantly and without notice — the template breaks and the model does not. That single property is why intelligent automation succeeds in places where a decade of RPA projects stalled.

What it does not remove is the need for validation. Models are confidently wrong sometimes, and in finance and insurance workflows a silent error is worse than a rejection. Everything we build carries per-field confidence, cross-field consistency checks, and arithmetic validation against the source, so uncertain items surface in a review queue rather than flowing into the ledger. The measurable goal is not "no errors" — it is "no undetected errors".

Problems we solve

If any of these sound familiar, we should talk

Features

What's included

In depth

How we build intelligent automation

Why language models succeeded where RPA stalled

Robotic process automation was sold as automating any repeatable process, and it genuinely worked for structured, stable inputs. Its failure mode was always the same: it required the world to hold still. Templates keyed to coordinates, screen-scraping keyed to element positions, rules enumerated for every variation someone thought of in advance. Every supplier redesign, portal update and new document format broke something, and maintenance eventually consumed the savings.

A vision-language model reads a document approximately the way a person does — it locates the invoice number because it understands what an invoice number is, not because it was told where to look. A layout it has never encountered is not an error condition. That is the whole difference, and it is why workflows that resisted a decade of automation attempts now automate in weeks.

The trade-off is that the model can be wrong in ways a template cannot. A template either finds the field or fails loudly. A model can return a plausible, incorrect value with no signal of trouble. Everything else in this page is about engineering that signal back in.

For clients with existing RPA estates, the right move is usually augmentation rather than replacement. The bots keep doing what they are good at — moving structured data between systems reliably — and an AI extraction layer in front of them supplies clean, structured input. This preserves existing investment and delivers value in weeks rather than a rebuild.

Confidence scoring: the difference between a tool and a liability

An extraction system that reports 97% accuracy and cannot tell you which 3% are wrong is not usable in finance, insurance or compliance. The value comes from knowing which outputs to trust.

We generate confidence at the field level using several independent signals rather than the model’s own self-assessment alone, which is unreliable on its own. Token-level probability from the extraction pass, agreement between two different model passes on the same field, validation against the document’s own arithmetic (do the line items sum to the stated total?), format and range checks, and cross-reference against master data — an unrecognised supplier tax ID is low confidence regardless of how cleanly it was read.

Those signals combine into a per-field confidence score, and thresholds decide the route. Above the threshold on every field: straight through. Below on any field: to the review queue with the uncertain fields highlighted. Thresholds are set per field by consequence, not uniformly — a misread invoice date costs a phone call, a misread bank account number costs real money, and they should not share a threshold.

The thresholds are tuned during parallel run, where we can measure precisely what STP rate each setting produces and what error rate slips through. That curve is a business decision, not a technical one, and we present it as such.

Designing the human review queue properly

Every intelligent automation deployment has a human queue, and its design determines whether the whole system feels like a gain or a burden. We have seen technically excellent extraction pipelines fail adoption entirely because reviewing an exception took longer than processing the document manually would have.

The rules we build to: the document image and the extracted values sit side by side, with the source region for each field highlighted on hover so the reviewer verifies visually rather than hunting. Only uncertain fields are surfaced for attention; confident ones are shown but do not demand it. Correction is keyboard-first with tab-through, because the people doing this work are fast typists and a mouse-driven interface halves their throughput. Approval is one keystroke.

Queues are prioritised by business urgency rather than arrival order — an invoice approaching its discount deadline outranks one that arrived first. And every correction is captured as labelled data, feeding the evaluation set so the same class of error can be measured and reduced.

A well-designed queue turns reviewers into exception handlers rather than data-entry staff, which is both a better job and a much cheaper one per unit of work. Teams that would have resisted automation generally become its strongest advocates once they stop typing.

Proving accuracy before you trust it: the parallel run

We do not ask clients to trust a benchmark. Before cutover, the pipeline processes real live volume alongside the existing manual process for two to four weeks, and every disagreement between the two is adjudicated by a subject-matter expert.

This produces three things. First, the genuine accuracy figure on your documents, including the scanned-on-a-phone tail that never appears in a vendor demo. Second, a categorised list of failure modes, each of which becomes either a fix or a known limitation with a routing rule. Third — reliably, in every parallel run we have conducted — a measurement of the manual baseline’s own error rate, which is typically between 1% and 4% and which nobody had ever quantified.

That third finding changes the conversation. The question stops being "is the AI perfect?" and becomes "is it better than what we do now, and are its errors more detectable?" On both counts a confidence-scored pipeline generally wins clearly, and the decision to cut over becomes straightforward rather than an act of faith.

The economics, and where the threshold sits

Cost per document processed by a well-architected pipeline is typically a few rupees, against a fully loaded manual cost measured in tens or hundreds depending on complexity and geography. The payback calculation is usually straightforward, but it is worth being precise about the components.

Inference cost per document depends heavily on page count and whether images require a vision model. Routing matters: sending every document to a frontier model is the most common way to destroy the economics, when the majority are clean and handled perfectly by a smaller one. Caching helps where documents repeat. And the human review tail must be included — at an 88% STP rate you are still paying for review on 12% of volume, and that cost belongs in the model.

The volume threshold where this pays back within a quarter sits at roughly 500 documents per month for moderately complex work, lower where the documents are complex or the manual cost is high, higher for simple ones. Below that, the integration and change-management effort usually outweighs the saving, and we will tell you so rather than build it.

The benefits that are harder to quantify tend to be the ones clients value most after a year: month-end that no longer requires overtime, volume spikes absorbed without temporary staff, and complete rather than sampled compliance coverage.

Use cases

Where this is deployed

Benefits

The outcomes clients hire us for

  • 80–95% straight-through processing
  • 10× faster cycle times
  • Near-zero re-keying errors
  • 100% of items checked, not samples
  • Volume spikes absorbed without temporary staff

By the numbers

Typical results

Decision guide

Intelligent automation vs. RPA vs. template OCR

The three approaches to document workflows, and where each actually holds up.

Comparison of AI-based intelligent automation, RPA and template-based OCR
AttributeIntelligent automationRules-based RPATemplate OCR
Handles a new layoutYes, without configurationNo — breaksNo — new template required
Understands meaningYes — semantic extractionNoNo — position only
Signals its own uncertaintyYes — per-field confidenceFails loudly or not at allLimited
Maintenance burdenLow — tuning, not rebuildingHigh — every change breaks itHigh — template per format
Cost per documentLow, inference-basedVery low once workingVery low

Industries

Where we've deployed this

  • Insurance
  • Accounting
  • Supply chain
  • Banking
  • Real estate
  • Government
  • Healthcare
  • Manufacturing

Our process

A step-by-step path to production

  1. 01

    Workflow & volume analysis

    We measure what is actually happening: monthly volume by document type, the real distribution of layouts and quality (including the scanned-on-a-phone tail), current handling time, current error rate, and where the process stalls. We also establish the manual baseline honestly — most teams have never measured their own error rate, and it is rarely zero.

  2. 02

    Extraction model configuration

    We define the target schema field by field with the people who use the data, then configure extraction with model routing: a fast vision-language pass for clean documents, escalation to a stronger model for difficult ones. Every field gets a confidence method and a validation rule — format, range, cross-reference against master data, or arithmetic consistency with other fields.

  3. 03

    Validation & review-queue design

    This is the part that determines whether the system is trusted. We design the review interface around the reviewer’s actual job: document and extracted values side by side, uncertain fields highlighted, keyboard-first correction, and one-click approval. Corrections feed back as evaluation data. A bad review queue converts a good extractor into an unusable system.

  4. 04

    Parallel run vs. manual baseline

    The pipeline processes live volume alongside your existing team for two to four weeks. Every disagreement is adjudicated and categorised. This produces the real accuracy number on your real documents — not a vendor benchmark — and it routinely uncovers errors in the manual baseline, which is uncomfortable and useful.

  5. 05

    Cutover & continuous tuning

    We move document types to automated processing one at a time, each with a rollback. Monitoring tracks STP rate, field accuracy, review-queue depth and cost per document, with alerting on drift — a new supplier format or a scanner change shows up as a confidence dip before it becomes a backlog.

Deliverables

What you receive

Everything below is yours from the first commit — code, configuration, evaluation data and documentation.

  • Intake pipeline for email, SFTP, scan and API sources
  • Extraction and classification service with per-field confidence
  • Validation ruleset and human review application
  • Write-back integrations to ERP, CRM or line-of-business systems
  • Exception dashboard: STP rate, accuracy, queue depth, cost per document
  • Complete processing audit trail and operational runbook

Technology stack

Tools we typically use

  • Claude / GPT-4V
  • Azure Document AI
  • Python
  • Airflow / Temporal
  • SAP / NetSuite APIs
  • Power Automate
  • Postgres
  • S3 / Blob Storage

Case study — A mid-market insurance carrier

Claims intake time cut from 3 days to 4 hours

AI reads claim forms, medical reports, and photos; validates against policy data; and routes 88% of claims straight to adjudication with zero manual data entry.

Situation

A motor and health carrier processed roughly 6,000 claims a month. Intake was manual: a team opened each submission, identified the document types, keyed data into the claims system, and chased missing items by email. Average time from submission to adjudication-ready was three days, and it doubled during monsoon-season spikes when temporary staff had to be onboarded mid-surge.

Approach

We built an intake pipeline against the email and portal channels. Documents are classified automatically, then extracted against a per-type schema with cross-validation against the policy master — insured name, policy number, coverage dates and sum insured must reconcile across the claim form, the medical report and the policy record. Confidence thresholds were set field by field, with anything touching payment amount held to the strictest. A parallel run over four weeks measured 96.4% field accuracy against expert adjudication and, notably, a 2.8% error rate in the existing manual process. Incomplete submissions now generate a specific itemised request instead of a generic rejection.

Outcome

Eighty-eight percent of claims now reach adjudication with no manual data entry. Average intake time is four hours, and the seasonal spike no longer requires temporary staff — the queue absorbs it. The intake team of eleven was redeployed to complex-claim investigation and fraud review, which the carrier had previously resourced by sampling. Customer complaints about repeated document requests dropped sharply, which was not a stated objective but is the outcome the operations director quotes.

  • 88%

    Straight-through to adjudication

  • 3 days → 4 hrs

    Average intake time

  • 96.4%

    Field accuracy in parallel run

  • 2.8%

    Error rate found in the manual baseline

Pricing

Scoped precisely, priced before we start

Every engagement begins with a fixed-fee discovery that produces a committed scope, timeline, and price — plus the expected ROI, so the decision makes itself.

FAQ

Intelligent Automation — common questions

On typical business documents we reach 95–99% field-level accuracy, with confidence thresholds routing anything uncertain to a human queue — so errors do not silently pass through. We prove the number on your own documents during a parallel run rather than quoting a benchmark.

No. We usually add an AI layer in front of existing bots so they receive clean, structured input. The bots keep doing what they are reliably good at, your existing investment is preserved, and value arrives in weeks instead of a rebuild.

Workflows above roughly 500 documents a month typically pay back within the first quarter. Complex documents or high manual cost lower that threshold; simple ones raise it. Below the threshold we will tell you the integration effort outweighs the saving.

They go to a review queue with the uncertain fields highlighted against the source image, keyboard-first correction, and one-click approval. Every correction is captured as evaluation data. The queue is designed as carefully as the extraction — a bad one makes a good extractor unusable.

Handwritten fields and phone photographs of documents are the hardest category, and accuracy varies with legibility. We measure them separately during the proof of concept and typically set lower confidence thresholds so more of that category routes to review rather than degrading trust in the whole pipeline.

Through your APIs — SAP, NetSuite, Oracle, Tally, Dynamics or a custom system — with the same validation and approval rules a human posting would go through. Where no API exists we write to a staging table or file interface your system already consumes.

Every document carries a complete processing trail: source, timestamps, model version, extracted values with confidence, validation results, any human correction and who made it. That record is generally stronger evidence than a manual process produces, which is a common reason compliance teams end up supporting these projects.

Six to ten weeks for a single workflow through to cutover, including the parallel run. A three-week accuracy proof of concept can come first if you want the numbers before committing to integration work.

No. We use enterprise endpoints with zero-retention agreements. For clients who cannot send documents outside their environment at all, we deploy open-weight vision models entirely inside your VPC or on-premise.

Usually nothing — the model reads the new layout without configuration, which is the central advantage over templates. If a change does dent accuracy, confidence scores dip first and alerting surfaces it as a signal before it becomes a backlog.

Related

Services that pair with this

Browse all 10 service lines or read the full FAQ.

Ready to explore Intelligent Automation?

Talk to an architect — not a salesperson. 30 minutes, concrete answers.