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Journal of Autonomous Intelligence

Blockchain Internet of Things (BIoT) for Secure and Real Time Monitoring

Submission deadline: 2023-08-31
Special Issue Editors

Special Issue Information

Dear Colleagues,

Blockchain Internet of Things (BIoT) is a new buzz word in the modern digital world that is playing a significant role in many different types of advanced service systems, providing greater convenience and better efficiency/effectiveness by intelligently controlling system hardware in a way that humans have never experienced. IoT enables devices across the Internet to send data to private blockchain networks to create tamper-resistant records of shared transactions. BIoT helps in Operational maintenance, Freight transportation, Pharmacy, Smart homes, Supply chain management, Insurance to benefit Lower costs, improved security, Quick data change, Streamlined finances, Efficient supply chain. In the upcoming era, where improved service function and sophistication have turned into a crucial feature in a keen completion, BIoT considers the challenges Scalability, Security risks, Sensor reliability, Computing power and time required, Network privacy and transaction confidentiality. As a result, this Special Issue (SI) concentrates on its influences on human civilization and offers a forum for discussions on pertinent convergence technologies. After selecting an appropriate topics from the list below, or by choosing another if necessary, manuscripts may address the technological elements, usability, and contributing components of their specific BIoT-based electronic solutions.

•      Authentication management of blockchain-enabled IoT systems;

•      Edge/cloud computing for blockchain-enabled IoT;

•      Software-defined networks for blockchain-enabled IoT systems;

•      Network slicing mechanisms for blockchain-enabled IoT systems;

•      Service computing for blockchain-enabled IoT;

•      Big data analytics in blockchain-enabled IoT systems;

•      Blockchain-based solutions to security, privacy and trust of IoT systems;

•      Novel machine learning/deep learning approaches for blockchain-enabled IoT systems;

•      Authentication management of blockchain-enabled IoT systems;

•      Edge/cloud computing for blockchain-enabled IoT;

•      Software-defined networks for blockchain-enabled IoT systems;.

•      Network slicing mechanisms for blockchain-enabled IoT systems;

•      Service computing for blockchain-enabled IoT;

•      Big data analytics in blockchain-enabled IoT systems;

•      Blockchain-based solutions to security, privacy and trust of IoT systems;

•      Novel machine learning/deep learning approaches for blockchain-enabled IoT systems;

 

Dr. Nitin Goyal

Dr. Arun Kumar Rana

Guest Editors


Keywords

Blockchain; Security; Machine learning; Internet of Things; Decentralization

Published Paper

In this paper, an equivalent combination of series and parallel R-L-C high-pass filter circuit is derived for a nano (quantum) antenna for the Internet of thing (IoT) based sensors for speedy data or organ image displaying in medical line surgeries. The proposed method utilized the sample frequency behavior of characteristics mode to develop a fundamental  building block that  superimposes  to  create  the  complete response. The resonance frequency, input impedance, and quality factor have been evaluated along with basic and higher-order resonating modes. The relation between quality factor, bandwidth, resonance frequency, and selectivity for higher order, increases the quantum circuits in terms of increased order of a filter, quality factor, and odd and even harmonics factors. Therefore, the basic circuits derivation factor of frequency coefficients are expanded in terms of polynomials and then they are expressed as a simple rational function from which the basic circuit parameters are calculated. In this circuit input impedance of each circuit’s element is complex. The real part of input impedance depends on frequency, depending on the frequency positive or negative value of the resistor, and the imaginary part of impedance modelling an inductor or capacitor due to the value of frequency. At cutoff frequency 511 THz, z11 and VSWR parameters are 34 Ω and 1.11, respectively. The proposed quantum DRA is tested at 5 THz, 10 THz, and 500 THz by calculating the electrical parameters like R, L, C and model performance is quite good as compared to existing ones. The dynamic impedance is dependent on the skin effect and enhances the detailed discussion below. The utilization of optical or quantum DRAs is as optical sensors in biomedical engineering, speedy wireless communication, and optical image solutions. Analyte material has been used for monitoring frequency deviation.