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Investigation of Deep Learning Models for Analysis of Heart Disorders in Smart Health Care based IoT Environment

  
15 giu 2024
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Figure 1:

Proposed Framework
Proposed Framework

Figure 2:

GRU -network Architecture.
GRU -network Architecture.

Figure 3:

ROC curves a)UCI datasets b) Framingham c) Public Datasets c) real time Sensor inputs.
ROC curves a)UCI datasets b) Framingham c) Public Datasets c) real time Sensor inputs.

Figure 4:

Evaluation metrics of Proposed Model utilising the UCI Datasets
Evaluation metrics of Proposed Model utilising the UCI Datasets

Figure 5:

Performance metrics of Proposed Model using the Firmangham Datasets
Performance metrics of Proposed Model using the Firmangham Datasets

Figure 6:

Performance metrics of Proposed Model using the Public Health Datasets
Performance metrics of Proposed Model using the Public Health Datasets

Figure 7:

Performance metrics of Proposed Model utilising the Real time Sensor Datasets
Performance metrics of Proposed Model utilising the Real time Sensor Datasets

Real-Time Data Used for the Testing and Evaluation

Dataset Description Dataset Description No. of Records No. of Attributes Associated Tasks Training Data / Testing
Real-Time Datasets 1,190 200 14 Classification 80:20

Comparative Analysis of the Different Algorithm In Handling the Public health datasets

Algorithm Accuracy (%) Precision (%) Recall (%) Specificity (%) F1-Score (%)
LSTM 91.3% 90.4% 90.2% 89.2% 89.3%
CNN+LSTM 91.5% 91.34% 91.48% 91.35% 91.6%
RNN+LSTM 92.4% 93.7% 93.0% 93.2% 93.0%
HRFLM 89.0% 89.9% 89.78% 89.68% 90%
RFRS 86.4% 87.2% 87.4% 87.43% 87.2%
MDCNN 95.2% 95.2% 94.9% 94.5% 94.35%
Proposed Model 98.17% 98.1% 98.1% 98.17% 98.15%

Comparative Analysis of the Different Algorithm In Handling the Framingham datasets

Algorithm Accuracy (%) Precision (%) Recall (%) Specificity (%) F1-Score (%)
LSTM 91.3% 90.4% 90.2% 89.2% 89.3%
CNN+LSTM 91.5% 91.34% 91.48% 91.35% 91.6%
RNN+LSTM 92.4% 93.7% 93.0% 93.2% 93.0%
HRFLM 89.0% 89.9% 89.78% 89.68% 90%
RFRS 86.4% 87.2% 87.4% 87.43% 87.2%
MDCNN 95.2% 95.2% 94.9% 94.5% 94.35%
Proposed Model 98.17% 98.1% 98.1% 98.17% 98.15%

Evaluation Metrics utilized for the assessment

SL.NO Evaluation Metrics Mathematical Expression
01 Accuracy TP+TNTP+TN+FP+FN {{TP + TN} \over {TP + TN + FP + FN}}
02 Recall TPTP+FN×100 {{{\rm{TP}}} \over {{\rm{TP}} + {\rm{FN}}}} \times 100
03 Specificity TNTN+FP {{TN} \over {TN + FP}}
04 Precision TNTP+FP {{TN} \over {TP + FP}}
05 F1-Score 2.PrecisonRecallPrecison+Recall 2.{{Precison\, * \,{Recall}} \over {Precision\, + \, {Recall}}}

Comparative Assessment of Distinct Algorithm In Handling the UCI datasets

Algorithm Accuracy (%) Precision (%) Recall (%) Specificity (%) F1-Score (%)
LSTM 91.3% 90.4% 90.2% 89.2% 89.3%
CNN+LSTM 91.5% 91.34% 91.48% 91.35% 91.6%
RNN+LSTM 92.4% 93.7% 93.0% 93.2% 93.0%
HRFLM 89.0% 89.9% 89.78% 89.68% 90%
RFRS 86.4% 87.2% 87.4% 87.43% 87.2%
MDCNN 95.2% 95.2% 94.9% 94.5% 94.35%
Proposed Model 98.17% 98.1% 98.1% 98.17% 98.15%

Comparative Analysis of the Different Algorithm In Handling the Real time Datasets

Algorithm Accuracy (%) Precision (%) Recall (%) Specificity (%) F1-Score (%)
LSTM 91.3% 90.4% 90.2% 89.2% 89.3%
CNN+LSTM 91.5% 91.34% 91.48% 91.35% 91.6%
RNN+LSTM 92.4% 93.7% 93.0% 93.2% 93.0%
HRFLM 89.0% 89.9% 89.78% 89.68% 90%
RFRS 86.4% 87.2%% 87.4% 87.43% 87.2%
MDCNN 95.2% 95.2% 94.9% 94.5% 94.35%
Proposed Model 98.17% 98.1% 98.1% 98.17% 98.15%

Datasets Details Used for the Experimentation

Dataset Description Dataset Description No. of Records No. of Attributes Associated Tasks Training Data / Testing
UCI Machine 18,000 203 55 Classification 80:20
Learning Public Health 3,300 1,000 9 Prediction 80:20
Datasets Framingham 3,780 3800 10 Prediction 80:20