Real-Time AI Systems for Monitoring Cancer Treatment Responses

Real-time cancer therapy success is what determines customising medicines, enhancing patient results, and lowering of unwanted side effects. This monitoring shapes the evolution of cancer therapy. The use of artificial intelligence (AI) in this field might result in a clear shift in the course of evolution of objects. This allows one to continuously and precisely monitor patient reaction to treatment. The purpose of this project is research on the many uses of artificial intelligence systems in the area of cancer therapy. More particularly, it underlines how they may combine imaging, genomic, and clinical records—among other types of data—to provide real-time information on the efficacy of these treatments. Artificial intelligence driven models—such as convolutional neural networks (CNNs) for image processing and natural language processing (NLP) for unorganised clinical data—allow one to find signals and patterns otherwise difficultly detected. These systems utilise adaptable algorithms able to learn from long-term data on people to project patient responses to treatments like immunotherapy, chemotherapy, and targeted drugs. This is made feasible by these systems' capacity to generate these predictions. Apart from improving the quality and speed of the information, the integration of intelligent devices collecting real-time biological data helps as well. We are highlighting how important it is for the many artificial intelligence technologies to cooperate, be scalable, and be used in a way fit for the architecture we have suggested. Real-time feedback loops enable oncologists to remain current with the most recent data, therefore enabling early intervention and customised treatment plan change. Case studies have shown how effectively these algorithms spot early indicators of treatment resistance and simplify the selection of which drugs to modify. Making use of real-time artificial intelligence systems presents some difficulties. Among these issues are concerns about data privacy, government rules must be strong, and unequal access to new technology in the healthcare industry. Resolving these problems will assist to ensure that cancer monitoring powered by artificial intelligence operates well and is deployed everywhere.

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Publication Details

Published
2024-12-23
DOI
https://doi.org/10.1145/3745812.3745876
Citations
1
Primary Topic
Radiomics and Machine Learning in Medical Imaging
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article
Field-Weighted Citation Impact
0.40
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article

Real-Time AI Systems for Monitoring Cancer Treatment Responses

Namrata Verma, Yatin Gandhi, Siddhartha Varma, Vaishali Mashalkar et al.
1 citations
Radiomics and Machine Learning in Medical Imaging
0.40
article

Real-Time AI Systems for Monitoring Cancer Treatment Responses

Namrata Verma, Yatin Gandhi, Siddhartha Varma, Vaishali Mashalkar, Rasika Ranjit Chafle
article en
1 citations

Abstract

Real-time cancer therapy success is what determines customising medicines, enhancing patient results, and lowering of unwanted side effects. This monitoring shapes the evolution of cancer therapy. The use of artificial intelligence (AI) in this field might result in a clear shift in the course of evolution of objects. This allows one to continuously and precisely monitor patient reaction to treatment. The purpose of this project is research on the many uses of artificial intelligence systems in the area of cancer therapy. More particularly, it underlines how they may combine imaging, genomic, and clinical records—among other types of data—to provide real-time information on the efficacy of these treatments. Artificial intelligence driven models—such as convolutional neural networks (CNNs) for image processing and natural language processing (NLP) for unorganised clinical data—allow one to find signals and patterns otherwise difficultly detected. These systems utilise adaptable algorithms able to learn from long-term data on people to project patient responses to treatments like immunotherapy, chemotherapy, and targeted drugs. This is made feasible by these systems' capacity to generate these predictions. Apart from improving the quality and speed of the information, the integration of intelligent devices collecting real-time biological data helps as well. We are highlighting how important it is for the many artificial intelligence technologies to cooperate, be scalable, and be used in a way fit for the architecture we have suggested. Real-time feedback loops enable oncologists to remain current with the most recent data, therefore enabling early intervention and customised treatment plan change. Case studies have shown how effectively these algorithms spot early indicators of treatment resistance and simplify the selection of which drugs to modify. Making use of real-time artificial intelligence systems presents some difficulties. Among these issues are concerns about data privacy, government rules must be strong, and unequal access to new technology in the healthcare industry. Resolving these problems will assist to ensure that cancer monitoring powered by artificial intelligence operates well and is deployed everywhere.

Visvesvaraya National Institute of Technology (IN), Krishna Institute of Medical Sciences (IN), Indian Institute of Technology Bhilai (IN), Software Competence Center Hagenberg (Austria) (AT), Poornima University (IN), Krishna Institute of Medical Sciences Deemed University (IN)
Openalex Percentile: Top 30%
Radiomics and Machine Learning in Medical Imaging
0.40
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