Big Data Utilization for Disease Forecasting from Medical Treatment Organizations

Actual medical data analysis helps with slightly earlier illness diagnosis, patient treatment, and outreach programs as big data usage increases in the biological and hospitality industries. Notwithstanding, when the quality of the healthcare records is lacking, the analysis's precision suffers. Additionally, distinctive illnesses in various areas have their own traits, which could make it harder to forecast when an ailment will spread. In this study, we simplify machine learning methods for accurate noncommunicable diseases epidemic forecast in areas with high cancer incidence. We test the updated predictive model using data from actual hospitals in Sichuan Province. We employ a latent component model to fill in the blanks in order to get around the problem of insufficient data. We conduct research on a localized, persistent brain ischemia condition. Utilizing both structured and unorganized medical data, we suggest a novel comprehensive disease estimation method that utilizes convolutional neural networks. To the best of our understanding, no work has been done in the field of medical big data analytics that specifically addressed both give information. When matched to several common different classifiers, our suggested application's forecast precision converges more quickly than the monotonic cancer risk prognosis tool it is built on.

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Publication Details

Published
2025-02-13
DOI
https://doi.org/10.1109/ic363308.2025.10956880
Primary Topic
Big Data and Business Intelligence
Type
article
Field-Weighted Citation Impact
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article

Big Data Utilization for Disease Forecasting from Medical Treatment Organizations

Haider Mohammed Abbas, A. Pavithra, M. Sailaja, K. Balasubramanian et al.
Big Data and Business Intelligence
article

Big Data Utilization for Disease Forecasting from Medical Treatment Organizations

Haider Mohammed Abbas, A. Pavithra, M. Sailaja, K. Balasubramanian, G. Jogesh Babu, Thumuluru Kavitha Madhuri
article en

Abstract

Actual medical data analysis helps with slightly earlier illness diagnosis, patient treatment, and outreach programs as big data usage increases in the biological and hospitality industries. Notwithstanding, when the quality of the healthcare records is lacking, the analysis's precision suffers. Additionally, distinctive illnesses in various areas have their own traits, which could make it harder to forecast when an ailment will spread. In this study, we simplify machine learning methods for accurate noncommunicable diseases epidemic forecast in areas with high cancer incidence. We test the updated predictive model using data from actual hospitals in Sichuan Province. We employ a latent component model to fill in the blanks in order to get around the problem of insufficient data. We conduct research on a localized, persistent brain ischemia condition. Utilizing both structured and unorganized medical data, we suggest a novel comprehensive disease estimation method that utilizes convolutional neural networks. To the best of our understanding, no work has been done in the field of medical big data analytics that specifically addressed both give information. When matched to several common different classifiers, our suggested application's forecast precision converges more quickly than the monotonic cancer risk prognosis tool it is built on.

Iraqi University (IQ), CMR University (IN), Saveetha University (IN)
Openalex Percentile: Top 89%
Big Data and Business Intelligence
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