In this project, we delve into the scope of holistic learning, a key part of strategic business decision-making, to improve the accuracy and reliability of sales forecasts. We acknowledge the limitations of single-model approaches and explore ways to combine multiple models to create a more robust Projection framework. Our methodology includes a wide range of machine learning algorithms, including linear regression and decision trees, as well as ensemble techniques such as bagging and boosting using LGBM, XGBoost, and CatBoost. The decision trees are trained through a process of recursive partitioning, where the dataset containing historical sales data is prepared, and the algorithm recursively splits the dataset into subsets based on the values of input features. At each step, the algorithm selects the feature that best splits the data into homogeneous subsets in terms of the target variable, which in this case is sales. Various splitting criteria, such as Gini impurity, entropy, or mean squared error, are employed to determine the best feature to split the data at each node. After the tree is fully grown, pruning techniques like cost complexity pruning are applied to simplify the tree while maintaining predictive accuracy. Furthermore, ensemble techniques such as Random Forest, Gradient Boosting, and other boosting algorithms are utilized to combine multiple decision trees and enhance predictive performance. The project includes a careful data processing step that ensures material quality and consistency, after which individual models and entities are developed and optimized. Performance evaluation metrics, specifically Mean Absolute Error and Root Mean Squared Error, are used to quantify the accuracy of sales forecasts. In addition, the project performs a comprehensive feature significance analysis to reveal the specific contribution of different variables to the Projection process. The results highlight the effectiveness of generalized learning in mitigating the limitations of individual models and improving the overall prediction accuracy. This research not only addresses the immediate challenges of sales Projection but also lays the groundwork for further research and improvement of aggregate learning techniques in business analytics.

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Ensemble Learning for Sales Projection

  • Mitanshu Jain,
  • Faisal Nazir,
  • R. Jeya

摘要

In this project, we delve into the scope of holistic learning, a key part of strategic business decision-making, to improve the accuracy and reliability of sales forecasts. We acknowledge the limitations of single-model approaches and explore ways to combine multiple models to create a more robust Projection framework. Our methodology includes a wide range of machine learning algorithms, including linear regression and decision trees, as well as ensemble techniques such as bagging and boosting using LGBM, XGBoost, and CatBoost. The decision trees are trained through a process of recursive partitioning, where the dataset containing historical sales data is prepared, and the algorithm recursively splits the dataset into subsets based on the values of input features. At each step, the algorithm selects the feature that best splits the data into homogeneous subsets in terms of the target variable, which in this case is sales. Various splitting criteria, such as Gini impurity, entropy, or mean squared error, are employed to determine the best feature to split the data at each node. After the tree is fully grown, pruning techniques like cost complexity pruning are applied to simplify the tree while maintaining predictive accuracy. Furthermore, ensemble techniques such as Random Forest, Gradient Boosting, and other boosting algorithms are utilized to combine multiple decision trees and enhance predictive performance. The project includes a careful data processing step that ensures material quality and consistency, after which individual models and entities are developed and optimized. Performance evaluation metrics, specifically Mean Absolute Error and Root Mean Squared Error, are used to quantify the accuracy of sales forecasts. In addition, the project performs a comprehensive feature significance analysis to reveal the specific contribution of different variables to the Projection process. The results highlight the effectiveness of generalized learning in mitigating the limitations of individual models and improving the overall prediction accuracy. This research not only addresses the immediate challenges of sales Projection but also lays the groundwork for further research and improvement of aggregate learning techniques in business analytics.