Variational Autoencoders for Network Lifetime Enhancement in Wireless Sensors
Authors:
- Boopathi Chettiagounder SengodanBSBoopathi Chettiagounder Sengodan
- Prince Mary StanislausPSPrince Mary Stanislaus
- Sivakumar Sabapathy ArumugamSASivakumar Sabapathy Arumugam
- Dipak Kumar SahDSDipak Kumar Sah
- Dharmesh DhabliyaDDDharmesh Dhabliya
- Poongodi ChenniappanPCPoongodi Chenniappan
- James Deva Koresh HezekiahJHJames Deva Koresh Hezekiah
- Rajagopal MaheswarRajagopal Maheswar
Open Access
Abstract
Wireless sensor networks (WSNs) are structured for monitoring an area with distributed sensors and built-in batteries. However, most of their battery energy is consumed during the data transmission process. In recent years, several methodologies, like routing optimization, topology control, and sleep scheduling algorithms, have been introduced to improve the energy efficiency of WSNs. This study introduces a novel method based on a deep learning approach that utilizes variational autoencoders (VAEs) to improve the energy efficiency of WSNs by compressing transmission data. The VAE approach is customized in this work for compressing WSN data by retaining its important features. This is achieved by analyzing the statistical structure of the sensor data rather than providing a fixed-size latent representation. The performance of the proposed model is verified using a MATLAB simulation platform, integrating a pre-trained variational autoencoder model with openly available wireless sensor data. The performance of the proposed model is found to be satisfactory in comparison to traditional methods, like the compressed sensing technique, lightweight temporal compression, and the autoencoder, in terms of having an average compression rate of 1.5572. The WSN simulation also indicates that the VAE-incorporated architecture attains a maximum network lifetime of 1491 s and suggests that VAE could be used for compression-based transmission using WSNs, as its reconstruction rate is 0.9902, which is better than results from all the other techniques.Keywords
This publication has 20 references indexed in Scilit:
- Self-driven continual learning for class-added motor fault diagnosis based on unseen fault detector and propensity distillationEngineering Applications of Artificial Intelligence, 2023
- Collaborative Energy-Efficient Routing Protocol for Sustainable Communication in 5G/6G Wireless Sensor NetworksIEEE Open Journal of the Communications Society, 2023
- Artificial neural networks-based improved Levenberg–Marquardt neural network for energy efficiency and anomaly detection in WSNWireless Networks, 2023
- An Energy-Efficient Data Aggregation Clustering Algorithm for Wireless Sensor Networks Using Hybrid PSOEnergies, 2023
- Energy-Efficient Cluster Head Selection in Wireless Sensor Networks Using an Improved Grey Wolf Optimization AlgorithmComputers, 2023
- Multiple agent based reinforcement learning for energy efficient routing in WSNWireless Networks, 2023
- DeepComp: A Hybrid Framework for Data Compression Using Attention Coupled AutoencoderArabian Journal for Science and Engineering, 2022
- CBN-VAE: A Data Compression Model with Efficient Convolutional Structure for Wireless Sensor NetworksSensors, 2019
- Auto-encoder based dimensionality reductionNeurocomputing, 2016
- Compressed sensingIEEE Transactions on Information Theory, 2006