INTERPRETABLE DEEP LEARNING FOR IIOT: AN LSTM–IFWT DRIVEN SENSOR DATA ANALYTICS FRAMEWORK FOR E-WASTE MANAGEMENT AND SUSTAINABLE MONITORING

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Authors: Journal of Theoretical and Applied Information Technology
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Abstract

Contextually, the Industrial Internet of Things (IIoT) contributes significantly to the Industry 4.0 to deliver intelligent monitoring and predictive maintenance systems. Nevertheless, the IoT sensor data, particularly in alpha-phase applications, are very volatile and intermittent with devices, which create significant obstacles to trustworthy data analysis. This paper introduces a mature and scalable framework to Long Short-Term Memory (LSTM) network and an innovative Intuitive Feature Wavelet Transformation (IFWT) mechanism that may be employed to successfully model and explain such time-varying time-series data. LSTM is a form of Recurrent Neural Network (RNN), and may be utilized to learn a temporal dependency between multivariate temperature measurements observed by sensors installed within as well as outside a controlled room atmosphere. The implementation using the architect of the Block chain layer achieved by the application of 5 layer and 13-layer functional transformations developed by using e-waste information security and threefold and multilabel categorization resolution in the advertisement of revolutionary IOT. Results of the experiment indicate that the suggested LSTM-based model is highly accurate in forecasting and detecting anomalies even in the presence of data instability. In order to make the models more interpretable, IFWT is proposed as a post-hoc approach to analysis that converts the weights of learned features into human-intuitive formats. The results of the Precision and performance in terms of F-1scores have been found to be more than 15% better in time series solution and more than 96% better in terms of classifications than SOA architectures. The proposed study proposes the vitality of IIOT ecosystems on block chain technology employed with augmented throughput imploring the many state-of-the-art methods and other deep learning structures to actualize the many solutions on IIOT.

Fields of Study & Subjects

Time Series Analysis and Forecasting Internet of Things and AI Smart Agriculture and AI

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
15 January 2026