Machine Learning

Machine learning systems designed around measurable outcomes and production-facing artifacts.

This page covers the core ML systems in the portfolio: churn prediction, inventory demand forecasting, credit risk prediction, and the observability layer used to keep model behavior visible after deployment.

ChurnAt-risk customer classification
ForecastingInventory planning and scenario analysis
RiskProbability-based credit decisions

Page focus

Applied ML systems presented as complete workflows, with business objectives, modeling logic, evaluation discipline, and operational visibility.

ClassificationForecastingRisk ModelingObservability

Design principle

Each case study should feel like a real deployable system, not a standalone notebook or isolated algorithm demo.

What matters here

Clear targets, interpretable outputs, measurable performance, and artifacts that can support product, analytics, and operations teams.

Core ML systems

Machine learning workflows in the portfolio

These systems cover customer behavior prediction, inventory planning, credit risk estimation, and monitoring patterns for models in operation.

CH
ClassificationRetention

Customer Churn Prediction

Supervised learning pipeline to identify at-risk customers using behavioral, transactional, and engagement features. Designed for proactive retention campaigns and uplift measurement.

Behavioral dataProbability scoresRetention strategy
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FD
ForecastingTime Series

Inventory Demand Forecasting

Time-series and feature-enriched forecasting workflow to optimize inventory levels, reduce stock-outs, and support multi-horizon planning decisions.

Demand planningScenario analysisMulti-horizon
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CR
Risk ModelingBinary Classification

Credit Risk Prediction

Binary classification system for credit default risk using borrower and loan attributes, with probability-based risk bands, explainability, and observability-compatible outputs.

Loan attributesRisk bandsExplainability
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Problem definitionEach system starts with a clear predictive target and a specific business use case.
EvaluationPerformance is communicated through metrics, artifacts, and decision-relevant diagnostics.
InterpretabilityOutputs are designed to be understandable by non-model consumers, not only ML practitioners.
Deployment thinkingSystems are framed with stable outputs and monitoring hooks for downstream use.
ML Observability

Keeping model performance visible after deployment

The observability layer brings together metrics, feature importance, ROC views, confusion matrices, and forecast tracking so model behavior remains legible over time.

Centralized dashboard patterns for model metrics and artifact review.
Feature importance and model interpretation signals to support explainability.
ROC curves and confusion matrices for threshold-aware classification evaluation.
Forecast series visualizations for demand systems and time-based performance review.
Artifacts

Evaluation views used across the systems

The goal is not only to train models but to surface the right evaluation and monitoring views so issues become visible early and decisions can be explained clearly.

ROC / PR analysis

Classification performance visualized beyond simple accuracy numbers.

Confusion matrices

Error structure inspection to support operational threshold tuning.

Feature importance

Interpretability artifacts that connect predictions back to meaningful drivers.

Forecast series

Trend and horizon-aware views for planning and anomaly inspection.

Coming Soon
Interactive demo

Interactive churn prediction demo

This section is intended to host an interactive churn prediction experience where users can adjust feature values and observe model predictions and explanations in real time.

Planned experience

Interactive feature controls, predicted churn score, explanation panel, and a compact product-style response surface.

Current state

UI placeholder only. Model inference and backend integration are intentionally deferred to a later iteration.

Why it belongs here

It turns the page from a static ML showcase into an interactive demonstration of model-driven product UX.

ML themes

Common technical patterns across these systems

Although the use cases differ, the ML systems share a common design vocabulary around supervised learning, probabilistic outputs, operational metrics, and interpretable artifacts.

Supervised learningFeature engineeringProbability outputsRisk bandsForecastingClassificationROC curvesConfusion matricesFeature importanceScenario analysisObservabilityDashboard artifacts
Continue through the portfolio

Move from ML systems into NLP, RAG, and broader AI workflows.

This page focuses on the supervised ML side of the portfolio. Continue into NLP tooling, open the RAG assistant, or browse projects to see how the full AI system layers connect.