A Novel Multimodal Method for Depression Identification
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Keywords

Multimodality
Depression
Deep Learning

How to Cite

Singhal, Rahul, Shruti Srivatsan, and Priyabrata Panda. 2022. “A Novel Multimodal Method for Depression Identification”. Journal of Trends in Computer Science and Smart Technology 4 (4): 215-25. https://doi.org/10.36548/jtcsst.2022.4.001.

Abstract

Depression is one of the most prominent mental health issues, characterized by a depressed low mood and an absence of enthusiasm in activities. In terms of early detection, accurate diagnosis, and effective treatment, doctors face a serious challenge from depression, which is a serious global health issue. For patients with this mental disease to receive prompt medical attention and improve their general well-being, early identification is essential. For the purpose of detecting various psychological illnesses including depression, anxiety, and post-traumatic stress disorder, medical audio consultations along with survey responses have been used. A depressed individual displays a range of subtle signs that may be more easily identified by combining the results of multiple modalities. Multimodality involves extracting maximum information from data by using multiple modes, so that the deep learning model can be trained efficiently to give better results. Given that each modality functions differently, combining various modalities is not easy, and each origin of a modality takes on a different form. It is clear from the literature that is currently significant in the area that, combining the modalities yields positive outcomes. A trustworthy approach to identify depression is thus urgently needed because it continues to be a problem for many individuals in today’s society. In this work, textual and audio features are incorporated related to the identification of depression, and a novel multimodal approach using an optimized Bi-directional Long Short -Term Memory model that recognizes premature depression is suggested for medical intervention before it develops further.

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