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banking-use-case-discovery

banking-use-case-discovery

github.com/jurgendnProductivity1154 installsUpdated 6w ago
Repository

About banking-use-case-discovery

A skill for turning broad banking R&D goals into a prioritized portfolio of AI use cases. It helps banking research and product teams weigh business value, data readiness, feasibility, precedent, evaluation, and risk.

Key features

  1. 01Maps opportunities across banking domains
  2. 02Builds structured use-case cards
  3. 03Scores feasibility, value, and risk
  4. 04Classifies ideas by priority
  5. 05Identifies literature search directions
  6. 06Recommends a balanced portfolio

Use cases

  1. 01Prioritizing bank AI pilots and R&D
  2. 02Assessing use cases against available data
  3. 03Exploring opportunities across banking workflows

Install

Copy the command and run it in a terminal.

$npx skills add https://github.com/jurgendn/agent-skills --skill banking-use-case-discovery

After installing, type/banking-use-case-discoveryin Claude Code to confirm it loaded.

Bundled filesevals/evals.json

Details

From the project README

Banking Use Case Discovery

Turn broad banking R&D goals into a prioritized use-case portfolio.

The goal is not to list every possible AI use case in banking. The goal is to identify opportunities where business value, data feasibility, risk controls, and literature precedent can align.

When to use this skill

Use this skill when the user asks:

  • what AI/ML/R&D problems to explore in a bank;
  • how to turn banking pain points into use cases;
  • which banking use cases are feasible with available data;
  • how to prioritize ideas for R&D, PoC, or pilot;
  • how to brainstorm within credit, fraud, AML, customer, operations, documents, compliance, or productivity.

For paper-backed solution details after a use case is selected, use publication-grounded-solution-design or banking-ai-literature-mapper.

Banking opportunity map

Consider these domains:

DomainExample decisions/workflowsCommon methodsKey risks
Credit riskapproval, limit, early warning, affordabilityscoring, survival models, graph ML, explainable MLfairness, explainability, regulation, leakage
Fraud and scamstransaction monitoring, mule detection, scam preventionanomaly detection, graph learning, sequence models, rules + MLadversarial behavior, false positives, latency
AMLsuspicious activity detection, case prioritizationgraph analytics, weak supervision, entity resolution, typology mininglabel bias, auditability, regulatory defensibility
Collectionscontact prioritization, hardship detection, treatment strategyuplift modeling, reinforcement learning, segmentationcustomer harm, policy constraints
Customer intelligencechurn, next-best-action, personalizationrecommender systems, uplift modeling, representation learningconsent, fairness, over-targeting
Contact centerrouting, summarization, QA, agent assistretrieval, LLMs, speech/text analyticshallucination, privacy, human adoption
Document AIKYC, loan docs, contracts, formsOCR, layout models, information extraction, RAGextraction errors, audit trail, document drift
Compliance and risk opspolicy checking, control testing, reportingNLP, retrieval, workflow mining, anomaly detectionlegal interpretation, accountability
Productivityanalyst copilots, knowledge search, code/data assistantsRAG, agents, tool use, summarizationdata leakage, answer grounding, evaluation

Workflow

1. Start from pain, not technology

For each candidate area, capture:

  • current process;
  • user pain;
  • cost of failure;
  • decision frequency;
  • manual effort;
  • available data;
  • known constraints;
  • owner and adoption path.

Avoid starting with "use LLM" or "use graph neural networks" unless the problem shape justifies it.

2. Convert areas into use-case cards

Use this template:

### Use case: [name]
- Business problem:
- Decision/workflow:
- Target users:
- Data needed:
- Candidate method families:
- Prior precedent to search:
- Business value hypothesis:
- Risk/compliance concerns:
- Pilot shape:
3. Score each use case

Score 1–5 for:

  • business impact;
  • data readiness;
  • technical feasibility;
  • literature/industry precedent;
  • evaluation clarity;
  • operational adoption;
  • risk/manageability.

Then classify:

  • Quick pilot: high feasibility, clear data, manageable risk;
  • R&D candidate: promising but requires method/data exploration;
  • Strategic bet: high impact but hard integration or governance;
  • Defer: unclear value, weak data, or unacceptable risk.
4. Identify research grounding needs

For each promising use case, list search directions:

  • canonical banking/finance terms;
  • adjacent domains with similar problem shape;
  • evaluation benchmarks;
  • regulatory or explainability literature;
  • known failure modes.

Examples:

  • mule account detection → graph anomaly detection, fraud rings, financial transaction networks;
  • complaint summarization → grounded summarization, customer support QA, RAG evaluation;
  • credit early warning → survival analysis, temporal tabular modeling, macroeconomic stress features.
5. Prioritize a portfolio

Recommend a balanced set:

  • one quick pilot;
  • one medium-term R&D project;
  • one strategic learning bet;
  • one data-foundation project if many use cases are blocked by the same missing data.

Output format

# Banking use-case discovery

## Context and constraints

## Use-case portfolio
| Use case | Domain | Impact | Data readiness | Feasibility | Precedent | Evaluation clarity | Risk | Priority |
|---|---|---:|---:|---:|---:|---:|---:|---|

## Top use-case cards
### 1. [Use case]
- Business problem:
- Decision/workflow:
- Target users:
- Data needed:
- Candidate methods:
- Prior precedent to search:
- Pilot shape:
- Main risks:

## Recommended portfolio
- Quick pilot:
- R&D candidate:
- Strategic bet:
- Data foundation need:

## Next literature searches

Quality bar

A good use-case map should help the user choose what to investigate next, not merely show that many banking tasks could use AI.

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