Analyzing Sleep Quality through Digital Data Insights and Soft Computing Methods for Enhanced Evaluation

The primary objective of the research is to evaluate the quantity of sleep by using actigraphy along with information generated from various devices. It defines typical sleep quality measurement instruments, such as survey forms, and discusses their benefits and downsides. Using soft computing methods and data acquired by commercialized smartwatches, this study starts by developing a novel way for measuring the quality of sleep without self-answered assessments. We offer three new sleep indices: SleepQualD for daily sleep quality, SleepQualWeek for weekly sleep quality, and SleepCons for consistency in sleep. These markers are generated from sleep characteristics measured by clinical actigraph devices and smartwatches, which provide a far more precise evaluation. Additionally, the purpose of this chapter is to comprehend the role of physical exercise and technological usage in assessing the quality of sleep. Additionally, the article discusses CNN and MLP, two deep learning and supervised machine learning methods, that were used to build the model that could predict the quality of sleep based on these variables. The results also back up the claim that wearable electronics and ML methods are crucial for improving the accuracy rate of CNN models and making objective predictions about sleep quality.

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Publication Details

Published
2025-02-21
DOI
https://doi.org/10.1109/mpseciceta64837.2025.11118513
Citations
1
Primary Topic
Sleep and related disorders
Type
article
Field-Weighted Citation Impact
2.12
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Analyzing Sleep Quality through Digital Data Insights and Soft Computing Methods for Enhanced Evaluation

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1 citations
Sleep and related disorders
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article

Analyzing Sleep Quality through Digital Data Insights and Soft Computing Methods for Enhanced Evaluation

S Varalakshmi, S. Ram Prasath, S Srividhya, Preetjot Singh, Bhandari Mahesh Ashok, Gourav Sood
article en
1 citations

Abstract

The primary objective of the research is to evaluate the quantity of sleep by using actigraphy along with information generated from various devices. It defines typical sleep quality measurement instruments, such as survey forms, and discusses their benefits and downsides. Using soft computing methods and data acquired by commercialized smartwatches, this study starts by developing a novel way for measuring the quality of sleep without self-answered assessments. We offer three new sleep indices: SleepQualD for daily sleep quality, SleepQualWeek for weekly sleep quality, and SleepCons for consistency in sleep. These markers are generated from sleep characteristics measured by clinical actigraph devices and smartwatches, which provide a far more precise evaluation. Additionally, the purpose of this chapter is to comprehend the role of physical exercise and technological usage in assessing the quality of sleep. Additionally, the article discusses CNN and MLP, two deep learning and supervised machine learning methods, that were used to build the model that could predict the quality of sleep based on these variables. The results also back up the claim that wearable electronics and ML methods are crucial for improving the accuracy rate of CNN models and making objective predictions about sleep quality.

Jain University (IN), Shri Venkateshwara University (IN), International Institute of Information Technology (IN), Karpagam Academy of Higher Education (IN), Chitkara University (IN)
Openalex Percentile: Top 12%
Sleep and related disorders
2.12
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