AI-Driven Healthcare Solutions: Utilizing Deep Learning for Predictive Analytics and Personalized Medicine

Advanced use of deep learning with predictive analytics and personalized medicine in healthcare are harnessing through the advent of Artificial Intelligence (AI). And in the subset of machine learning known as deep learning, neural networks (often teeming with thousands or millions of artificial neurons) process masses and piles of medical data to make much more precise patient-health-and-treatment predictions. In the realm of predictive analytics, AI models can analyze a broad array of input data such as EHRs (Electronic Health Records), medical imaging and genetic readouts to predict future health conditions prior to their expression. This is proactive approach allows for early detection and treatment on what works best for the individual patient. We can use these AI functionalities in personalized medicine to address the personal genetic, environmental and lifestyle-driven elements of custom based healthcare. Deep learning algorithms will analyze genetic data to detect disease markers and drug targets at gene level that can be hit by a therapy, enabling more effective breakthrough of treatments with fewer side effects. For example, health data history was used to predict who is at higher risk of getting diabetes or cardiovascular diseases by AI model that identified the patterns not appear through our traditional methods. Additionally, AI based health solutions improves the accuracy of diagnostic such as analyzing medical images like X- rays, MRIs and CT scans. Radiologists can use deep learning models that have high precision to identify anomalies present in an image, thereby helping diagnose early and accurate condition of a patient. The incorporation of AI in diagnostic mechanisms not only minimises the rate of human errors but also speeds up the workflow for a quick and reliable outcome. From drug discovery and development, using deep learning algorithms to sort through massive datasets so as to predict the effectiveness of new compounds and signal its potential side effects is another way in which AI has been used. It speeds up drug development and makes it more efficient for deploying new therapies. Conclusion, AI and healthcare running on Deep Learning Powered Predictive Analytics with Personalized medicine has been a great evolution in the field. Deep learning technologies have the capability to improve the predictions of physicians, increase personalized treatment plans and provide better diagnostic methods resulting in higher-performance patient outcomes and more cost-effective healthcare provisions.

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Published
2024-12-20
DOI
https://doi.org/10.1109/ariia63345.2024.11051976
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1
Primary Topic
Machine Learning in Healthcare
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article
Field-Weighted Citation Impact
0.35
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AI-Driven Healthcare Solutions: Utilizing Deep Learning for Predictive Analytics and Personalized Medicine

S. B. Goyal, Anand Singh Rajawat, Rasha Abed
1 citations
Machine Learning in Healthcare
0.35
article

AI-Driven Healthcare Solutions: Utilizing Deep Learning for Predictive Analytics and Personalized Medicine

S. B. Goyal, Anand Singh Rajawat, Rasha Abed
article en
1 citations

Abstract

Advanced use of deep learning with predictive analytics and personalized medicine in healthcare are harnessing through the advent of Artificial Intelligence (AI). And in the subset of machine learning known as deep learning, neural networks (often teeming with thousands or millions of artificial neurons) process masses and piles of medical data to make much more precise patient-health-and-treatment predictions. In the realm of predictive analytics, AI models can analyze a broad array of input data such as EHRs (Electronic Health Records), medical imaging and genetic readouts to predict future health conditions prior to their expression. This is proactive approach allows for early detection and treatment on what works best for the individual patient. We can use these AI functionalities in personalized medicine to address the personal genetic, environmental and lifestyle-driven elements of custom based healthcare. Deep learning algorithms will analyze genetic data to detect disease markers and drug targets at gene level that can be hit by a therapy, enabling more effective breakthrough of treatments with fewer side effects. For example, health data history was used to predict who is at higher risk of getting diabetes or cardiovascular diseases by AI model that identified the patterns not appear through our traditional methods. Additionally, AI based health solutions improves the accuracy of diagnostic such as analyzing medical images like X- rays, MRIs and CT scans. Radiologists can use deep learning models that have high precision to identify anomalies present in an image, thereby helping diagnose early and accurate condition of a patient. The incorporation of AI in diagnostic mechanisms not only minimises the rate of human errors but also speeds up the workflow for a quick and reliable outcome. From drug discovery and development, using deep learning algorithms to sort through massive datasets so as to predict the effectiveness of new compounds and signal its potential side effects is another way in which AI has been used. It speeds up drug development and makes it more efficient for deploying new therapies. Conclusion, AI and healthcare running on Deep Learning Powered Predictive Analytics with Personalized medicine has been a great evolution in the field. Deep learning technologies have the capability to improve the predictions of physicians, increase personalized treatment plans and provide better diagnostic methods resulting in higher-performance patient outcomes and more cost-effective healthcare provisions.

Sandip Foundation (IN), City University Malaysia (MY)
Openalex Percentile: Top 29%
Machine Learning in Healthcare
0.35
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