Detection and Classification of Bipolar Disorder Syndrome using Deep Learning

Neural networks that are inspired by the way a human brain is structured, are known as artificial neural networks represent a unique class of machine learning algorithms. These algorithms allow artificial neural networks to acquire from data, and make resolutions based on the outcome, just like humans do. Non-linear data models, which have a whole load of variables and inputs, can predict new patterns. Artificial neural networks are already leveraged in everything from medical diagnoses to speech recognition as well as the ever-growing field of machine translation. There are multiple processes involved in the deep learning methodology that the method suggests for classifying bipolar disease. First, clinical and demographic data such as the sample’s age, gender, symptom severity, and medication history would be included in the dataset of bipolar disorder patient samples and control samples. The dataset would next undergo preprocessing to remove any outliers or missing values. In the meantime, standardization and normalization would be applied to the data to ensure that each variable is on a consistent scale. Data scientists may also decide to use feature selection to determine which variables are most useful for overall optimization for classification goals. In this proposed system accuracy is better as compared to the remaining conventional models. This makes it easier for us to select the elements that are most crucial to making our part a real feature. The two models ANN are the final features. Findings demonstrate that deep learning models, like as artificial neural networks (ANNs), are effective in treating neuroinformatics illnesses since datasets are readily available. When it comes to public relations, moods, and the dataset, the deep learning model predicts the correct classes with more precision. A popular application of ANN involves approximating a random function, thereby providing an inexpensive way to get to various statistics characterizing its distribution. In fact, Artificial Neural Networks as well, where they can learn from example data and return different predictions. The power of prediction is much more complex.

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Publication Details

Published
2024-09-18
DOI
https://doi.org/10.1109/icosec61587.2024.10722748
Citations
2
Primary Topic
Information Systems and Technology Applications
Type
article
Field-Weighted Citation Impact
1.06
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article

Detection and Classification of Bipolar Disorder Syndrome using Deep Learning

R. M. Dilip Charaan, R Chithambaramani, J Vimala Ithayan, D Marichamy et al.
2 citations
Information Systems and Technology Applications
1.06
article

Detection and Classification of Bipolar Disorder Syndrome using Deep Learning

R. M. Dilip Charaan, R Chithambaramani, J Vimala Ithayan, D Marichamy, P. Sivaprakash, M Sankar
article en
2 citations

Abstract

Neural networks that are inspired by the way a human brain is structured, are known as artificial neural networks represent a unique class of machine learning algorithms. These algorithms allow artificial neural networks to acquire from data, and make resolutions based on the outcome, just like humans do. Non-linear data models, which have a whole load of variables and inputs, can predict new patterns. Artificial neural networks are already leveraged in everything from medical diagnoses to speech recognition as well as the ever-growing field of machine translation. There are multiple processes involved in the deep learning methodology that the method suggests for classifying bipolar disease. First, clinical and demographic data such as the sample’s age, gender, symptom severity, and medication history would be included in the dataset of bipolar disorder patient samples and control samples. The dataset would next undergo preprocessing to remove any outliers or missing values. In the meantime, standardization and normalization would be applied to the data to ensure that each variable is on a consistent scale. Data scientists may also decide to use feature selection to determine which variables are most useful for overall optimization for classification goals. In this proposed system accuracy is better as compared to the remaining conventional models. This makes it easier for us to select the elements that are most crucial to making our part a real feature. The two models ANN are the final features. Findings demonstrate that deep learning models, like as artificial neural networks (ANNs), are effective in treating neuroinformatics illnesses since datasets are readily available. When it comes to public relations, moods, and the dataset, the deep learning model predicts the correct classes with more precision. A popular application of ANN involves approximating a random function, thereby providing an inexpensive way to get to various statistics characterizing its distribution. In fact, Artificial Neural Networks as well, where they can learn from example data and return different predictions. The power of prediction is much more complex.

Vel Tech Rangarajan Dr. Sagunthala R&D Institute of Science and Technology (IN)
Openalex Percentile: Top 17%
Information Systems and Technology Applications
1.06
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