Short description:

This book delves into wireless communication, focusing on 5G and 6G applications, mm and THz wave generation, material innovations, machine learning integration, and applications. It covers computational methods for optimizing mm-wave and THz devices.

With the crowded microwave spectrum, mm-wave and THz frequencies are ideal for next-generation applications. 5G technology enhances data speeds, reduces delays, and minimizes energy use. While 5G uses MIMO and mm-wave, the THz band offers more spectrum for 6G, promising higher data rates.

THz technology is used in wireless communications, remote sensing, and chemical analysis. This book is a valuable resource for THz technologists, covering research trends, computational methods, and topics like THz passive circuit modeling, mm-wave device simulation, and graphene applications in 6G.

Long description:

This book explores wireless communication elements, focusing on mm and THz wave generation, specifications, material innovations, machine learning integration, and applications. Computational methods like genetic algorithms and artificial neural networks optimize mm-wave and THz devices.

The microwave spectrum is often crowded, making millimeter (mm-wave) and terahertz frequencies the preferred choice for next-generation high-end applications. Millimeter-wave (mm-Wave) fifth-generation (5G) communication technology addresses reduced time delays, increased data transmission speeds, and minimized energy consumption, crucial for diverse user devices.

While 5G networks advance with Multiple-Input Multiple-Output (MIMO) multiplexing and mm-wave communications, the THz band offers even greater spectrum availability for systems like 6G. The surge in THz systems research aims to meet expanding technological demands, promising unprecedented data rates.

THz-wave technology finds applications in wireless communications, remote sensing, and chemical analysis. For THz-wave technologists, this book is a valuable resource, covering research trends and demands, along with computational/simulation methods.

Topics include Terahertz passive circuit modeling, mm-wave device simulation, Terahertz metrology, data transmission via mm-wave and THz signals, high-speed channel modeling, antenna design, graphene applications in 6G devices, THz absorbers, and sensors.

Table of Contents:

Simulations and Modelling of various THz devices for plasmonics application.- Tunable THz devices.- Modeling of THz wave modulators and attenuators.- THz application on biomedical engineering.- THz applications on wireless communication and optical communication.- Modelling of THz sources and detectors for various wired and wireless application.- THz radiating devices for defense, food, and agriculture sectors-A Review.- Modelling of two-dimensional devices for various THz applications.- THz imaging in industrial applications A Review.- Millimeter wave antenna structures: Current trends, Fabrication Process, Future scope and Optimization techniques.- Nanodevices for medical imaging using THz wave Applications.- Millimeter wave devices and Silicon technology: Current Trend and Applications (Review Article).- Millimeter wave operated reconfigurable devices.- RF characterization issues in millimetre wave applications.- Design and experimental validation of low-profile MIMO antenna for mm wave applications.- Millimeter wave devices: Current Trends, Fabrication process and Applications.- Design and experimental validation of mm wave antennas for breast cancer detection applications.- Deep learning for channel estimation in MIMO systems.- Design method of Printed Filter for RADAR applications in Terahertz Frequency Range.- Design and analysis of THz metamaterial antenna with deep learning algorithm optimization of antenna parameters.