AN INTELLIGENT FRAMEWORK FOR MULTISOUND DETECTION AND ENHANCEMENT IN DIGITAL STETHOSCOPES

Technological advancements in digital signal processing and AI have enhanced auscultation-based diagnostics.Conventional stethoscopes function but suffer from ambient noise and expert understanding.The desire for smart and automated diagnostic systems resulted in digital stethoscopes that provide better analysis of heart and lung sounds.This research seeks to overcome the deficiencies of traditional auscultation by combining machine learning with digital stethoscopes.The system applies Gaussian noise filtering and spectral subtraction for the elimination of noise and NMF for separation of sound.Subsequently, heart and lung disease classification is conducted based on derived features using a CNN-LSTM.An LLM based on GPT-2 offers interactive explanations of findings for enhanced understanding.Experimental outcomes indicate 91.46% accuracy which is significantly higher than with traditional auscultation techniques.The system is able to distinguish between heart and lung sounds and can accurately diagnose.The AI driven explanations further enhance the systems application in clinical practice.These outcomes demonstrate the capability of AI driven digital stethoscopes in noninvasive diagnosis and decision making for medical professionals.

Authors

Publication Details

Journal
International Research Journal of Education and Technology (IRJET).
Published
2024-11-29
DOI
https://doi.org/10.70127/irjedt.vol.7.issue03.1944
Primary Topic
Speech and Audio Processing
Type
article
Field-Weighted Citation Impact
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article

AN INTELLIGENT FRAMEWORK FOR MULTISOUND DETECTION AND ENHANCEMENT IN DIGITAL STETHOSCOPES

V Shreeyaa
International Research Journal of Education and Technology (IRJET).
Speech and Audio Processing
article

AN INTELLIGENT FRAMEWORK FOR MULTISOUND DETECTION AND ENHANCEMENT IN DIGITAL STETHOSCOPES

V Shreeyaa
article en

Abstract

Technological advancements in digital signal processing and AI have enhanced auscultation-based diagnostics.Conventional stethoscopes function but suffer from ambient noise and expert understanding.The desire for smart and automated diagnostic systems resulted in digital stethoscopes that provide better analysis of heart and lung sounds.This research seeks to overcome the deficiencies of traditional auscultation by combining machine learning with digital stethoscopes.The system applies Gaussian noise filtering and spectral subtraction for the elimination of noise and NMF for separation of sound.Subsequently, heart and lung disease classification is conducted based on derived features using a CNN-LSTM.An LLM based on GPT-2 offers interactive explanations of findings for enhanced understanding.Experimental outcomes indicate 91.46% accuracy which is significantly higher than with traditional auscultation techniques.The system is able to distinguish between heart and lung sounds and can accurately diagnose.The AI driven explanations further enhance the systems application in clinical practice.These outcomes demonstrate the capability of AI driven digital stethoscopes in noninvasive diagnosis and decision making for medical professionals.

International Research Journal of Education and Technology (IRJET).Vol. 6(11)
Openalex Percentile: Top 68%
Speech and Audio Processing
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AN INTELLIGENT FRAMEWORK FOR MULTISOUND DETECTION AND ENHANCEMENT IN DIGITAL STETHOSCOPES — V Shreeyaa · International Research Journal of Education and Technology (IRJET). (2024) | TGRS Research Map | TGRS