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Supply Chain & Operations · Inventory Analytics · Python · Production Architecture · 2026

Machine Learning For Demand Forecasting Manufacturing

Data Governance · Model Benchmarking · Metric Validation · REST Deployment — A rigorous data-science implementation designed specifically for SKU-level multi-horizon demand forecasting and safety-stock optimization. Built with reproducible ML workflows suitable for final-year engineering capstones and research viva defenses.

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Candidate Models
FastAPI
Inference Engine
SHAP
Model Explainability

Machine Learning For Demand Forecasting Manufacturing

Supply Chain & Operations · Inventory Analytics

Python · Feature Engineering · Cross-Validation · Model Serving

Operational Focus: SKU-level multi-horizon demand forecasting and safety-stock optimization.

Project Abstract & Technical Scope

This project introduces an end-to-end, production-ready machine learning framework for Machine Learning For Demand Forecasting Manufacturing. Within real-world operational environments, systems face severe obstacles including zero-inflated intermittent demand, promotional price elasticity spikes, and upstream bullwhip oscillations. The objective of this work is to implement a robust, leak-free computational pipeline that translates raw inputs into deterministic, high-confidence decision metrics.

The system ingests and processes records sourced from historical point-of-sale SKU sales, promo discount calendars, supplier lead-times, out-of-stock logs, and weather indices. Raw attributes undergo automated data sanitization, multivariate imputation, distribution rebalancing, and outlier filtering. Continuous numerical features are scaled using robust statistical scaling techniques, while categorical, spatial, and temporal attributes receive cyclical encoding, high-cardinality target transforms, or dense embeddings.

Modeling evaluates diverse algorithmic paradigms: LightGBM with Lag Covariates, Prophet with Exogenous Regressors, SARIMAX, Croston's Intermittent Model. Rigorous validation protocols employ stratified, temporal, or grouped cross-validation to prevent train-test contamination. Hyperparameter optimization is systematically executed via Bayesian search strategies (Optuna), targeting optimization of WAPE (Weighted Absolute Percentage Error), MASE, Inventory Turnover Lift, Stockout Rate Reduction rather than uninformative global accuracy.

To ensure practical viability and regulatory transparency, global and local feature contributions are derived using TreeSHAP and Partial Dependence profiles. The winning configuration is serialized into portable ONNX format and served via an asynchronous FastAPI microservice equipped with telemetry logging for real-time concept drift detection.

Tools & Technologies

The standard modern data science stack utilized for feature extraction, model tuning, and REST deployment:

Python 3.11+ Pandas NumPy Scikit-learn XGBoost LightGBM SHAP FastAPI

Modular Machine Learning Workflow

1. Data Governance & Cleaning

Schema validation, missing value imputation via MICE/KNN, and robust outlier filtering across historical point-of-sale SKU sales.

2. Feature Synthesis

Domain-specific interaction metrics, rolling lookback windows, and high-cardinality encoding without label leakage.

3. Competitive Benchmarking

Parallel evaluation across candidate models with Bayesian hyperparameter searches optimized for WAPE (Weighted Absolute Percentage Error).

4. Explainability & API Serving

SHAP force plots, residual error distribution auditing, and low-latency REST endpoints containerized for production.

Candidate Algorithms Benchmarked

  • • LightGBM with Lag Covariates
  • • Prophet with Exogenous Regressors
  • • SARIMAX
  • • Croston's Intermittent Model

Final production selection is based on cross-validated Pareto efficiency balancing WAPE (Weighted Absolute Percentage Error), MASE, Inventory Turnover Lift, Stockout Rate Reduction against inference latency.

Technical FAQ & Viva Preparation

Expanding-window rolling splits (TimeSeriesSplit) ensure future sales and pricing covariates are never visible to past training slices.
Croston's method and Zero-Inflated negative binomial regression forecast intermittent spare parts where traditional models fail.
Quantile regression estimates demand at the 90th percentile to establish dynamic safety stock buffers accounting for supplier lead-time variance.