Traditional business intelligence tools are used for the visualization of the data by the organizations, but the major problem is analysts have to make efforts to find the insights from this and also find the predictions on the basis of any one factor or metric; this makes the whole process time-consuming and difficult. This project proposes a framework focusing on decision-based analytics using a transactional dataset and creating a platform using Python and Streamlit that will provide a platform with options for data visualization and provide automated insights and predictions based on multiple variables with the help of a real-world dataset. The prediction model created using the Random Forest algorithm achieved an R² score of 0.99 and the Mean Absolute Error (MAE) of 37.93, thus the prediction deviation is low. This study also highlights the importance of Artificial Intelligence by implementing it the system using Machine Learning, showing how AI can help in advancing the dashboards from the traditional dashboards. The dashboard created will help to demonstrate how this proposed idea will enhance the efficiency and reduce the effort required for manually analyzing and interpreting and be easily usable by anyone, whether from a technical or non-technical field. The proposed system dashboard is reliable, time saving and requires less efforts, less complex and efficient.
Introduction
The text discusses the limitations of traditional Business Intelligence (BI) tools, which mainly provide static visualizations and require manual analysis to extract insights. These methods are time-consuming and often focus on single-variable analysis, making it difficult to understand complex business relationships where multiple factors influence outcomes like revenue. To address this, the study proposes an AI-enhanced, decision-centric BI system using a Python–Streamlit framework.
The proposed system integrates a Random Forest regression model to enable real-time “what-if” analysis, allowing users to adjust multiple variables (such as price and discount) and instantly see predicted outcomes. It also incorporates Explainable AI (XAI) to show feature importance, helping users understand which factors most influence results. Additionally, the system provides automated insight generation using simple statistical rules to summarize key trends from transactional data.
Compared to existing research, which is mostly conceptual and lacks practical implementation, this work delivers a fully functional, lightweight BI tool that combines visualization, prediction, and interpretation in one platform. It improves accessibility for non-technical users by removing the need for coding knowledge and enabling interactive decision-making.
Conclusion
This paper shows a project that implements a decision-based data visualization dashboard, which provides options to generate automated insights and download them for making decisions instead of manually finding them from the visualizations, and also predictions using a machine learning regression algorithm on the basis of multi-variable data, allowing the users to change the values of the variables and see the changes in the revenue accordingly. The prediction model performs well with a R² score of 0.99 and MAE score of 37.93.
In the future, the idea can be extended by providing real-time visualization by incorporating the changes in the dataset, also adding various other prediction features, and providing the advanced natural language processed insights. We can also add an explanation for the events that occurred with the help of XAI. Overall, this paper suggests an efficient application for decision-centric data visualization and can also be used for various datasets with some changes.
References
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