DeepELR: Deep learning-based energy and link stability aware routing in IoT for heart disease classification

Internet of Things (IoT) is an advancing trend that is likely to dominate future-generation technology. Predominant aim of the research is that objects and devices can be connected uniquely identifiable smart objects. IoT can involve all of those objects that are so profoundly integrated into the en...

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Published inComputational biology and chemistry Vol. 119; p. 108574
Main Authors C.A., Vidya, Shalini, V.Baby
Format Journal Article
LanguageEnglish
Published England Elsevier Ltd 01.12.2025
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ISSN1476-9271
1476-928X
1476-928X
DOI10.1016/j.compbiolchem.2025.108574

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Abstract Internet of Things (IoT) is an advancing trend that is likely to dominate future-generation technology. Predominant aim of the research is that objects and devices can be connected uniquely identifiable smart objects. IoT can involve all of those objects that are so profoundly integrated into the environment. Among the many applications, IoT health monitoring is one of the most popular in wearable electronics, making intelligent healthcare monitoring highly beneficial to heart disease patients. While the most important aspect of IoT is its integration with intelligent healthcare monitoring, it advances remote intelligent computing with an IoT scenario of health tracking. Early diagnosis and predictive modelling based on Machine Learning (ML) have been stated to be highly effective in medical analysis. This research aims at developing heart disease detection and integration into the IoT paradigm with the design of an effective routing algorithm for using data sensed by IoT nodes by medical professionals. A novel routing algorithm, called Deep Learning-based Energy and Link Stability Aware Routing (DeepELR) is developed for successful transmission of patient data to the destination. In this case, a Deep Recurrent Neural Network (DRNN) is used to forecast the nodal energy and link stability ensuring that the routing algorithm does not lose any data.With the transferred data, heart disease classification is done through ASSA-based ensemble learning. Besides, disease classification is performed with Accelerated Sparrow Search Algorithm-based ensemble learning (ASSA-based ensemble learning) technique, where the ensemble methods comprising DRN, DEB and RNN are trained by executing ASSA, which is generated by improving Sparrow Search Algorithm (SSA) by accelerating the algorithm.Hence, from the experiments, it was revealed that the proposed approach attained an energy consumption of 0.762 J with a Packet Delivery Ratio (PDR) of 94.3 % along with link stability of 31.8 %. [Display omitted] •To generate model, known as DeepELR,to carry out IoT routing. DeepELR can minimize delays and reduce the overall latency.•To perform heart disease detection, ASSA-based ensemble learning that uses DBN, DRN and RRN, trained using ASSA.•Performance of proposed approach is assessed by employing metrics, such as energy consumption, PDR, and link stability.
AbstractList Internet of Things (IoT) is an advancing trend that is likely to dominate future-generation technology. Predominant aim of the research is that objects and devices can be connected uniquely identifiable smart objects. IoT can involve all of those objects that are so profoundly integrated into the environment. Among the many applications, IoT health monitoring is one of the most popular in wearable electronics, making intelligent healthcare monitoring highly beneficial to heart disease patients. While the most important aspect of IoT is its integration with intelligent healthcare monitoring, it advances remote intelligent computing with an IoT scenario of health tracking. Early diagnosis and predictive modelling based on Machine Learning (ML) have been stated to be highly effective in medical analysis. This research aims at developing heart disease detection and integration into the IoT paradigm with the design of an effective routing algorithm for using data sensed by IoT nodes by medical professionals. A novel routing algorithm, called Deep Learning-based Energy and Link Stability Aware Routing (DeepELR) is developed for successful transmission of patient data to the destination. In this case, a Deep Recurrent Neural Network (DRNN) is used to forecast the nodal energy and link stability ensuring that the routing algorithm does not lose any data.With the transferred data, heart disease classification is done through ASSA-based ensemble learning. Besides, disease classification is performed with Accelerated Sparrow Search Algorithm-based ensemble learning (ASSA-based ensemble learning) technique, where the ensemble methods comprising DRN, DEB and RNN are trained by executing ASSA, which is generated by improving Sparrow Search Algorithm (SSA) by accelerating the algorithm.Hence, from the experiments, it was revealed that the proposed approach attained an energy consumption of 0.762 J with a Packet Delivery Ratio (PDR) of 94.3 % along with link stability of 31.8 %.
Internet of Things (IoT) is an advancing trend that is likely to dominate future-generation technology. Predominant aim of the research is that objects and devices can be connected uniquely identifiable smart objects. IoT can involve all of those objects that are so profoundly integrated into the environment. Among the many applications, IoT health monitoring is one of the most popular in wearable electronics, making intelligent healthcare monitoring highly beneficial to heart disease patients. While the most important aspect of IoT is its integration with intelligent healthcare monitoring, it advances remote intelligent computing with an IoT scenario of health tracking. Early diagnosis and predictive modelling based on Machine Learning (ML) have been stated to be highly effective in medical analysis. This research aims at developing heart disease detection and integration into the IoT paradigm with the design of an effective routing algorithm for using data sensed by IoT nodes by medical professionals. A novel routing algorithm, called Deep Learning-based Energy and Link Stability Aware Routing (DeepELR) is developed for successful transmission of patient data to the destination. In this case, a Deep Recurrent Neural Network (DRNN) is used to forecast the nodal energy and link stability ensuring that the routing algorithm does not lose any data.With the transferred data, heart disease classification is done through ASSA-based ensemble learning. Besides, disease classification is performed with Accelerated Sparrow Search Algorithm-based ensemble learning (ASSA-based ensemble learning) technique, where the ensemble methods comprising DRN, DEB and RNN are trained by executing ASSA, which is generated by improving Sparrow Search Algorithm (SSA) by accelerating the algorithm.Hence, from the experiments, it was revealed that the proposed approach attained an energy consumption of 0.762 J with a Packet Delivery Ratio (PDR) of 94.3 % along with link stability of 31.8 %.Internet of Things (IoT) is an advancing trend that is likely to dominate future-generation technology. Predominant aim of the research is that objects and devices can be connected uniquely identifiable smart objects. IoT can involve all of those objects that are so profoundly integrated into the environment. Among the many applications, IoT health monitoring is one of the most popular in wearable electronics, making intelligent healthcare monitoring highly beneficial to heart disease patients. While the most important aspect of IoT is its integration with intelligent healthcare monitoring, it advances remote intelligent computing with an IoT scenario of health tracking. Early diagnosis and predictive modelling based on Machine Learning (ML) have been stated to be highly effective in medical analysis. This research aims at developing heart disease detection and integration into the IoT paradigm with the design of an effective routing algorithm for using data sensed by IoT nodes by medical professionals. A novel routing algorithm, called Deep Learning-based Energy and Link Stability Aware Routing (DeepELR) is developed for successful transmission of patient data to the destination. In this case, a Deep Recurrent Neural Network (DRNN) is used to forecast the nodal energy and link stability ensuring that the routing algorithm does not lose any data.With the transferred data, heart disease classification is done through ASSA-based ensemble learning. Besides, disease classification is performed with Accelerated Sparrow Search Algorithm-based ensemble learning (ASSA-based ensemble learning) technique, where the ensemble methods comprising DRN, DEB and RNN are trained by executing ASSA, which is generated by improving Sparrow Search Algorithm (SSA) by accelerating the algorithm.Hence, from the experiments, it was revealed that the proposed approach attained an energy consumption of 0.762 J with a Packet Delivery Ratio (PDR) of 94.3 % along with link stability of 31.8 %.
Internet of Things (IoT) is an advancing trend that is likely to dominate future-generation technology. Predominant aim of the research is that objects and devices can be connected uniquely identifiable smart objects. IoT can involve all of those objects that are so profoundly integrated into the environment. Among the many applications, IoT health monitoring is one of the most popular in wearable electronics, making intelligent healthcare monitoring highly beneficial to heart disease patients. While the most important aspect of IoT is its integration with intelligent healthcare monitoring, it advances remote intelligent computing with an IoT scenario of health tracking. Early diagnosis and predictive modelling based on Machine Learning (ML) have been stated to be highly effective in medical analysis. This research aims at developing heart disease detection and integration into the IoT paradigm with the design of an effective routing algorithm for using data sensed by IoT nodes by medical professionals. A novel routing algorithm, called Deep Learning-based Energy and Link Stability Aware Routing (DeepELR) is developed for successful transmission of patient data to the destination. In this case, a Deep Recurrent Neural Network (DRNN) is used to forecast the nodal energy and link stability ensuring that the routing algorithm does not lose any data.With the transferred data, heart disease classification is done through ASSA-based ensemble learning. Besides, disease classification is performed with Accelerated Sparrow Search Algorithm-based ensemble learning (ASSA-based ensemble learning) technique, where the ensemble methods comprising DRN, DEB and RNN are trained by executing ASSA, which is generated by improving Sparrow Search Algorithm (SSA) by accelerating the algorithm.Hence, from the experiments, it was revealed that the proposed approach attained an energy consumption of 0.762 J with a Packet Delivery Ratio (PDR) of 94.3 % along with link stability of 31.8 %. [Display omitted] •To generate model, known as DeepELR,to carry out IoT routing. DeepELR can minimize delays and reduce the overall latency.•To perform heart disease detection, ASSA-based ensemble learning that uses DBN, DRN and RRN, trained using ASSA.•Performance of proposed approach is assessed by employing metrics, such as energy consumption, PDR, and link stability.
ArticleNumber 108574
Author C.A., Vidya
Shalini, V.Baby
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Keywords NN
MQTT
ANN
DRN
CNN
LEACH
HLRBM
LR
DL
RREQ
KNN
AFO
SVM
RRMOG
RREP
IoT
Deep learning
DBN
RNN
RERR
Heart disease
FDNN
ML
PDR
Optimization algorithm
LSTM
Routing
HLDA-MALO
Ensemble technique
BiLSTM
DRNN
RSSI
NB
RF
DeepELR
DMOA
TEEN
SAE-GSO
Language English
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Snippet Internet of Things (IoT) is an advancing trend that is likely to dominate future-generation technology. Predominant aim of the research is that objects and...
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SubjectTerms Algorithms
Deep Learning
Ensemble technique
Heart disease
Heart Diseases - classification
Heart Diseases - diagnosis
Humans
Internet of Things
IoT
Neural Networks, Computer
Optimization algorithm
Routing
Wearable Electronic Devices
Title DeepELR: Deep learning-based energy and link stability aware routing in IoT for heart disease classification
URI https://dx.doi.org/10.1016/j.compbiolchem.2025.108574
https://www.ncbi.nlm.nih.gov/pubmed/40627942
https://www.proquest.com/docview/3228522215
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