Industries · Financial Services & Insurance

AI automation for Financial Services & Insurance

10 automations that tend to pay off in financial services & insurance, with real examples and the ones worth piloting first. Every figure is an attributed industry source, not our own claim.

Reconciliation, close and regulatory-reporting automation

SME
low build Good first pilot

Bots and workflows that match transactions across banking systems, ledgers and sub-ledgers, chase down the breaks, post the routine journal entries and assemble regulatory and management reports, shortening the month-end close.

Problem it removes

Reconciliation and close are heavily manual, error-prone and time-pressured. Backlogs of unmatched items build up, audit risk rises, and finance teams spend the close firefighting instead of analysing.

How it is built

RPA (robotic process automation: software bots that operate existing systems like a person would) for matching and journal posting, plus rules and, increasingly, ML to resolve fuzzy matches and classify exceptions. Full audit logging for the regulator.

Example

Auxis reports an RPA bank-reconciliation deployment (UiPath with Trintech ReconNet) cutting an outstanding-transaction backlog from over $2 million to under $100,000. Deloitte (cited) puts reconciliation processing-time reduction at up to 70% with 50% better accuracy.

Scales

Any finance team with repetitive, rule-based reconciliation benefits; larger organisations get the biggest absolute savings from high transaction volumes and complex report packs. A very common, well-understood starting automation.

Typical industry figure

Indicative: up to ~70% less processing time and ~50% fewer data errors; faster close and cleaner audit trail. Deloitte/vendor ranges; label indicative.

Indicative third-party figures, not TelarLabs results.

KYC / AML onboarding and identity verification

SME
medium build Good first pilot

An automated pipeline that verifies a new customer's identity, checks them against sanctions and politically-exposed-person lists, reads and validates their ID and proof-of-address documents, and flags only the genuinely risky cases for a human compliance officer.

Problem it removes

Manual onboarding takes days, frustrates good customers, and ties up expensive compliance staff on routine checks. Screening also generates huge volumes of false alerts that analysts must clear by hand.

How it is built

Document processing / IDP for ID and address docs, biometric face-match, screening APIs against sanctions/PEP/watchlists, machine-learning classification to risk-rate cases, and workflow automation to auto-clear low-risk and escalate the rest. Increasingly an agentic layer drafts the review write-up for analyst sign-off.

Example

FOCAL reports Saudi platform Aseel cut onboarding time by 87% to ~40 seconds per customer. McKinsey describes agentic AI applied to KYC/AML compressing some reviews from ~45 minutes to under a minute. Industry sources put potential KYC cost reduction at up to 70%.

Scales

Fintechs and small lenders buy verification largely off-the-shelf and integrate it; mid-market and banks add case management, tuning and audit trails. Scales with applicant volume and regulatory scope (jurisdictions, product types).

Typical industry figure

Indicative: onboarding from days to minutes; up to 70% lower KYC cost; 60%+ reduction in review time in agentic pilots. Ranges are indicative and depend heavily on risk appetite and regulator expectations.

Indicative third-party figures, not TelarLabs results.

Customer-service voice and chat agents

SME
medium build Good first pilot

An AI assistant on phone and chat that handles routine customer questions end-to-end (balances, payments, policy details, simple servicing) around the clock, and hands the caller to a human only when the query genuinely needs one.

Problem it removes

High volumes of repetitive, low-value queries clog contact centres, drive long wait times and cost millions in agent labour, while staff are stretched away from complex cases that actually need judgement.

How it is built

Conversational AI: an LLM grounded in the firm's knowledge base (RAG) for accurate answers, speech-to-text and text-to-speech for voice, integration into core systems for real actions, and clear guardrails plus human escalation. Intent classification routes and prioritises.

Example

CGI reports an international financial-services firm whose chatbot handles 500,000 conversations/year, cutting cost by ~€2 million annually, with only 6% of chats needing a live agent. Master of Code cites an EU institution with ~300,000 monthly calls spending $14.8 million/year on routine inquiries as the target for voice automation.

Scales

Chat-first is accessible even to small firms; voice and deep core-system integration are heavier and suit mid-market and enterprise. Scales with contact volume; value grows as more intents are safely automated.

Typical industry figure

Indicative: ~€2m/year saved and >90% self-service resolution in the CGI case; broad deflection of routine calls where volumes are high and workflows structured. Figures are deployment-specific; treat as indicative.

Indicative third-party figures, not TelarLabs results.

Internal knowledge assistant for advisers and staff (RAG)

SME
medium build Good first pilot

A secure internal chatbot that answers staff questions from the firm's own documents (research, product terms, procedures, compliance policy), citing the source, so advisers and support staff find the right answer in seconds instead of hunting through systems.

Problem it removes

Advisers and agents waste hours searching scattered research and policy libraries; much of the knowledge base goes unused, answers are inconsistent, and onboarding new staff is slow.

How it is built

Retrieval-augmented generation: the firm's documents are indexed into a vector database; an LLM retrieves the relevant passages and answers grounded in them, with citations. Access controls, evaluation suites and human review keep it accurate and compliant.

Example

Morgan Stanley's GPT-4 assistant, grounded via RAG on 350,000+ documents, reports 98%+ of adviser teams actively using it and document access rising from ~20% to ~80%, validated with an OpenAI eval framework for factuality and compliance.

Scales

Genuinely accessible at all sizes because it sits on top of documents you already have. Small firms can stand up a scoped assistant quickly; enterprises index hundreds of thousands of documents with heavy compliance evals.

Typical industry figure

Indicative: large cut in search time and near-universal adoption in the Morgan Stanley case; primary value is faster, more consistent answers and better use of existing knowledge. Adoption/coverage figures are case-specific; treat as indicative.

Indicative third-party figures, not TelarLabs results.

Document intelligence for financial paperwork (IDP)

SME
medium build Good first pilot

A reusable service that reads any financial document (statements, application forms, policy schedules, invoices, contracts) and turns it into clean, structured, validated data that flows straight into your systems, replacing manual data entry.

Problem it removes

Firms drown in unstructured paperwork that staff re-key by hand. Data entry is slow, costly and error-prone, and the errors ripple downstream into decisions, reporting and customer experience.

How it is built

Intelligent document processing: OCR to read, machine-learning extraction to identify fields, LLMs to handle unstructured or free-text sections, and validation rules with human-in-the-loop review for low-confidence extractions. Deployed as a shared capability many workflows call.

Example

Typical scenario: a broker or lender auto-extracts data from statements and application packs into its core system. Scry AI and Klippa describe IDP converting unstructured insurance and banking documents into structured data; Hexaware reports up to 50% faster document processing and 40% less manual effort in the claims context.

Scales

The foundational building block under claims, onboarding, lending and underwriting automations. Small firms apply it to one document type; enterprises run it as a central service across many. Scales with document volume and variety.

Typical industry figure

Indicative: up to ~50% faster document handling and ~40% less manual effort; large drop in data-entry errors. Vendor ranges; label indicative and confirm against your own document mix.

Indicative third-party figures, not TelarLabs results.

Insurance claims processing automation (FNOL to settlement)

SME
high build

Software that reads an incoming claim and its supporting documents (forms, photos, invoices, medical or repair reports), pulls out the key facts, checks them against the policy, and either settles simple claims straight through or hands a tidy, pre-assessed file to a human handler for the harder ones.

Problem it removes

Claims arrive as messy PDFs, emails and images and are re-keyed by hand. Cycle times run to days or weeks, staff cost is high, and inconsistent assessment causes claims leakage (paying more than warranted).

How it is built

Intelligent document processing (IDP: OCR plus machine-learning extraction) to read the documents, a rules-and-scoring layer plus an LLM to assess and summarise against policy terms, and workflow automation to route straight-through vs. referred claims. Fraud scoring and image analysis bolt on. Human-in-the-loop for anything above a confidence or value threshold.

Example

Shift Technology reports a large US travel insurer handling ~400,000 claims/year moved from 0% to 57% automation, with processing time dropping from up to three weeks to minutes. EY reports a Nordic insurer automating claims with its document-intelligence product. Sprout.ai cites a Zurich UK pilot with 98% accuracy across 2,000 claims.

Scales

Scales cleanly by claim volume. Enterprises automate whole lines end-to-end; smaller insurers, MGAs and brokers start with one high-volume, low-complexity claim type (e.g. travel, motor glass, simple property) and widen from there.

Typical industry figure

Indicative: 25–50% faster document handling and up to 40% less manual effort (Hexaware); McKinsey estimates 25–30% lower claims-handling expense; claims leakage down ~10–15% in typical property deployments. Treat as indicative ranges, not guarantees.

Indicative third-party figures, not TelarLabs results.

Transaction fraud detection and monitoring

ME
high build

A model that scores every payment or transaction in real time for how likely it is to be fraudulent, blocking or holding the risky ones while letting genuine activity through, and learning as fraud patterns change.

Problem it removes

Rule-based systems miss novel fraud and, worse, flag huge numbers of legitimate transactions (false positives) that annoy customers and swamp investigation teams. Fraud losses and investigation cost both climb.

How it is built

Supervised and unsupervised machine-learning classification on transaction, device and behavioural features, scoring in real time; anomaly detection for new patterns; a case-management workflow for flagged items. Requires solid data engineering and continuous model retraining.

Example

Danske Bank reports increasing fraud detection by ~60% and cutting false positives by ~50% with machine learning. HSBC reports a ~60% reduction in false positives from its Dynamic Risk Assessment system.

Scales

Data-hungry and latency-sensitive, so it favours organisations with meaningful transaction volume and clean data. Smaller players typically consume a vendor fraud-scoring service rather than building models in-house.

Typical industry figure

Indicative: fraud detection up ~50–60% and false positives down ~50–60% in flagship bank cases. These are specific to large deployments with rich data; smaller estimates should be treated as indicative.

Indicative third-party figures, not TelarLabs results.

Underwriting submission intake and triage (commercial insurance)

ME
high build

Software that opens each new insurance submission, extracts the risk details from the broker's documents and spreadsheets, classifies and prices-scores the risk, and routes it to the right underwriter with a preliminary assessment already prepared.

Problem it removes

Underwriters spend 30–40% of their time re-keying and reconciling submission data instead of underwriting. Slow, inconsistent triage means good risks are quoted late and poor risks slip through, hurting the loss ratio.

How it is built

IDP to read submission packs, classification models for industry code and risk category, rules plus an LLM to draft the risk summary, and workflow automation to route by appetite, workload and complexity. Human underwriter keeps the decision.

Example

Typical scenario: a commercial P&C carrier auto-ingests submissions and triages by appetite before an underwriter opens the file. Industry sources (hyperexponential, ValueMomentum) cite 2–4 point loss-ratio improvement and up to ~70% of underwriter admin time freed with integrated AI underwriting.

Scales

Best fit for commercial carriers, MGAs and Lloyd's-style markets with high submission volume and heterogeneous documents. Smaller specialty insurers pilot on one line of business first.

Typical industry figure

Indicative: 2–4 point loss-ratio improvement, ~30% more underwriter capacity, materially faster quote turnaround. Vendor-cited ranges; label indicative and validate per line.

Indicative third-party figures, not TelarLabs results.

Loan origination and credit-decision automation

SME
high build

An automated flow that collects a borrower's financial documents, extracts and validates the figures, runs the risk checks and affordability calculations, and produces a credit decision or a well-prepared file for a human credit officer.

Problem it removes

Manual document gathering and re-keying make lending slow and staff-heavy; decisions are inconsistent and time-to-decision on commercial and SME loans can run to weeks, losing deals to faster competitors.

How it is built

IDP/OCR to read bank statements, accounts and tax documents; extraction and validation into structured, decision-ready data; risk and affordability models for scoring; and an orchestration layer (increasingly agentic) that pulls data, runs models, flags anomalies and routes exceptions.

Example

Cross River reports an AI-based loan-processing solution cutting the loan cycle 3x+ while supporting over $6.5bn of SMB financing in four months. Industry sources report lenders handling 3–4x more applications with the same staff and 50–75% shorter time-to-decision on commercial loans.

Scales

Digital lenders and fintechs automate most of the flow; banks and larger lenders phase it in behind existing credit policy and governance. Scales by application volume and lets teams handle far more loans without more headcount.

Typical industry figure

Indicative: 3x+ faster loan cycle, 50–75% lower time-to-decision, 3–4x throughput per underwriter. Vendor/industry figures; treat as indicative and governed by credit policy.

Indicative third-party figures, not TelarLabs results.

AML alert triage and investigation assistant

ME
high build

An assistant that takes the flood of alerts from transaction-monitoring systems, gathers the relevant customer and transaction context, ranks them by genuine risk, and drafts the investigation write-up so analysts focus on the real cases and clear the noise faster.

Problem it removes

Transaction-monitoring rules generate enormous false-positive volumes; analysts spend most of their time assembling context and clearing alerts that were never suspicious, while true risks wait in the queue.

How it is built

Machine-learning classification/scoring to prioritise alerts, plus an agentic LLM layer that pulls customer, KYC and transaction context, applies the risk narrative and drafts the disposition for human sign-off. Full audit trail; humans make the SAR/no-SAR call.

Example

Typical scenario: a bank overlays alert scoring and an investigation copilot on its existing monitoring system. McKinsey reports agentic AI in financial-crime work delivering large productivity uplifts, with one person able to supervise many AI agents; Lucinity and similar vendors report analysts clearing alerts substantially faster.

Scales

Suits banks, payment firms and larger fintechs with an existing monitoring engine and alert backlog. Scales with alert volume; the more alerts, the larger the analyst-time saving.

Typical industry figure

Indicative: large reduction in analyst time per alert and faster clearance of false positives; McKinsey cites substantial productivity uplifts in agentic financial-crime deployments. Ranges are indicative and highly regulator- and data-dependent.

Indicative third-party figures, not TelarLabs results.

Not sure which of these to start with? Tell us the task that hurts most and we will say honestly whether it is worth automating.

Talk to us