The exchange between nourishment and wellbeing is imperative for infection anticipation and in general well-being. This extend presents a information mining approach to analyze dietary propensities and suggest personalized nourishment choices custom-made to person wellbeing conditions. By utilizing huge datasets containingdietarydata,dietarydesigns,andwellbeingrecords,theframeworkutilizes progressed information mining methods such as classification, clustering, and affiliation run the show mining to reveal important experiences. The proposed framework distinguishes relationships between dietary lacks and maladies, advertisingnoteworthydietaryproposals.Ittoohighlightsunthinkablenourishments and appropriate choices based on particular wellbeing conditions, such as diabetes, weight,orcardiovascularmaladies.Comparedtoconventionalmeasurablestrategies, the framework illustrates made strides precision and proficiency in analyzing complex datasets.
Introduction
This project uses data mining and machine learning, particularly the Random Forest algorithm, to analyze the relationship between dietary habits and health conditions. It aims to provide personalized food recommendations and predict potential diseases based on a user's diet and health profile.
The system integrates data from four main sources: food nutrition data, disease data, food consumption records, and user health profiles. Through data preprocessing (e.g., cleaning, feature engineering, normalization) and classification, it offers tailored dietary advice and warns against harmful foods for users with specific health risks such as hypertension, diabetes, or obesity.
Key advantages include:
High accuracy in disease prediction
Personalized recommendations
Scalability and efficiency
Improved healthcare decision-making through data-driven insights
The architecture includes two modules:
Admin module for managing datasets and generating insights
User module for receiving customized dietary guidance
Preprocessing steps like data cleaning, integration, and sampling ensure data quality, while the system’s user-friendly interface makes it accessible to both individuals and healthcare providers.
Conclusion & Future Work:
The system successfully demonstrates how data mining can enhance nutritional planning and disease prevention. Future enhancements may include:
Real-time data integration via wearable devices
Expanded datasets for global applicability
Advanced recommendation systems (e.g., meal plans for allergies or cultural needs)
Testing with other ML/DL models for improved accuracy
Conclusion
This project successfully demonstrates the use of data mining techniques to analyze the intricate relationship between dietary habits and health conditions. Byleveragingdatasetscontainingfooddetails,diseaseinformation,anduserhealth data, we developed a system that provides two key functionalities: predicting potentialdiseasesbasedondietaryinputsandrecommendingsuitablefoodstailored to individual health profiles.
Keyachievementsofthisprojectinclude
1) ComprehensiveDataIntegrationandAnalysis:Bycombining food,disease, anduserdata,thesystemhighlightstheinfluenceofdietarychoicesonhealth outcomes. This integration enables more personalized insights into the role of nutrition in disease prevention and management.
2) Data Preprocessing for Reliable Analysis: Data preprocessing techniques such as noise removal, missing value handling, and feature extraction ensured the quality and reliability of the input data. This step significantly improved the accuracy of the system\'s predictions and recommendations.
3) Machine Learning for Disease Prediction and Food Recommendation The use of the Random Forest algorithm provided accurate disease predictions and relevant food recommendations.
4) User-Friendly Interface: A dual dashboard design, with separate views for administrators and end-users, makes the system accessible and practical. Admins can monitor datasets and insights, while users receive .
References
[1] Al-Dhabyani, W., Gomaa, M., & Farag, A.(2021). Food classification and its impact on health using Random Forest models.Computers in Biology and Medicine, 137, 104788.[DOI: 10.1016/j.compbiomed.2021.104788].
[2] Chen, M., Wang, L., & Yang, H.(2020).Nutritional status prediction using machine learning techniques.Journal of Medical Systems, 44(2),36.[DOI: 10.1007/s10916-020-1536-8].
[3] Kumar, A., et al.(2022) .AI-powered Food Recommendation Engine for Healthy Aging [DOI: 10.3389/frai.2022.816531].
[4] Li, X., Zhang, Y., & Wang, Y.(2019).Data mining techniques for personalized dietary recommendations based on health profiles.IEEE Access, 7, 129594- 129605.[DOI:10.1109/ACCESS.2019.2940050].
[5] Liu, K., et al.(2020) Dietary Pattern Analysis: Investigating Food Patterns and Chronic Disease Risk using Data Mining Techniques\" (American Journal of Epidemiology)[DOI: 10.1093/aje/kwaa002].
[6] Mohan, A., & Singh, D.(2019).Data mining approaches for food-disease relationships.ACM Computing Surveys, 51(6), 1-26.[DOI:10.1145/3309632].
[7] Pal, S., & Prakash, J.(2017) A Data mining approach to Predict Health Risks Based on Dietary Habits .IEEE Access,12, 321-338.[DOI:10.1007/98-030- 46993-2_14].
[8] Patel, S., et al.(2021).Personalized Nutrition Advice through Data Analytics and Food Frequency Questionnaires, [DOI:10.1093/jn/nxab034].
[9] Singh, et al.(2022). Food-Health Analytics: A Review of Current Research and Future Directions,[DOI:10.1111/1750-3841.16151].
[10] Tseng, C., & Wang, R. (2018).Integrating data mining and machine learning techniques for dietary behavior prediction.Computers in Biology and Medicine, 95, 135-142.[DOI: 10.1016/j.compbiomed.2018.02.002].