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Machine Learning Based Predictive Market for Sales Forecasting

ANZA, Mercy Doowuese, Professor G M Wajiga, Awua Paul Mirga

Abstract

Sales forecasting remains a cornerstone of effective retail management, guiding supply chain optimization, inventory planning, and revenue strategies. Traditional forecasting models often fall short in capturing the complexity of consumer behavior, seasonal fluctuations, and branch-level variations, resulting in inefficiencies that affect profitability and customer satisfaction. To address these challenges, this project explores the application of supervised machine learning techniques for supermarket sales forecasting across multiple timeframes and outlets, with the goal of enabling medium- to large-scale retailers to improve decision-making and operational efficiency. The research followed a structured methodology in line with the project’s objectives. First, relevant datasets were collected, cleaned, and preprocessed, ensuring removal of inconsistencies, treatment of missing values, and preparation of training and testing subsets. Second, statistical methods and feature-importance techniques were applied to engineer and select key variables influencing sales, including temporal, promotional, and branch-specific factors. Third, supervised machine learning models were selected, tuned, and evaluated, with attention given to their suitability for different sales forecasting tasks. Finally, a prototype system was developed to simulate the training and testing of these models, enabling scenario-based forecasting and practical demonstration of outcomes. The prototype integrates predictive analytics into a user- friendly framework, allowing managers to visualize sales patterns, anticipate demand fluctuations, and adjust supply chain strategies accordingly. Beyond improving forecast reliability, the system contributes to reduced stockouts, minimized overproduction, and better alignment of resources with demand. Future extensions will consider expanding the dataset across sectors, integrating ensemble deep learning models, and deployi

Keywords

Sales ForecastingMachine LearningSupermarketsSupply Chain Optimization

References

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