Propagation Modeling for Wireless Communications
portes grátis
Propagation Modeling for Wireless Communications
Dey, Indrakshi
Taylor & Francis Ltd
07/2024
236
Mole
9781032081151
Pré-lançamento - envio 15 a 20 dias após a sua edição
Descrição não disponível.
Part 1. Introduction. 1. Introduction. Part 2. Wave-based Propagation. 2. Radiowave Propagation. 3. Acoustic Wave Propagation. 4. Mageto-Inductive Propagation. 5. Optical Wave Propagation. Part 3. Particle-based Propagation. 6. Molecular Communication. 7. Quantum Field Propagation. Part 4. Conclusion. 8. The Future.
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
molecular diffusion;particles;quantum fields;waves;IoT and Industrial IoT;Particle Propagation;Joint Channel-Signal Models;Turbulent Diffusion;Transmitter Models;Photonic Channel;5G/6G/7G of communication systems;communication networks;integrated wireless network;Industrial IoT;Cir;Path Loss;Vice Versa;Underwater Sensor Networks;Ann Model;Quantum Channels;Quantum Light;Information Particles;Receiver Aperture;Eikonal Equation;Underground Scenarios;Quantum Communication;Downlink Channel;Underwater Acoustic;Wireless Communication System;Channel Sounder;Optical Wave;Environmental Design Parameters;Local Oscillator;RC;Large Scale Turbulent Eddies;Quantum Field;Drill String;VL Communication
Part 1. Introduction. 1. Introduction. Part 2. Wave-based Propagation. 2. Radiowave Propagation. 3. Acoustic Wave Propagation. 4. Mageto-Inductive Propagation. 5. Optical Wave Propagation. Part 3. Particle-based Propagation. 6. Molecular Communication. 7. Quantum Field Propagation. Part 4. Conclusion. 8. The Future.
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
molecular diffusion;particles;quantum fields;waves;IoT and Industrial IoT;Particle Propagation;Joint Channel-Signal Models;Turbulent Diffusion;Transmitter Models;Photonic Channel;5G/6G/7G of communication systems;communication networks;integrated wireless network;Industrial IoT;Cir;Path Loss;Vice Versa;Underwater Sensor Networks;Ann Model;Quantum Channels;Quantum Light;Information Particles;Receiver Aperture;Eikonal Equation;Underground Scenarios;Quantum Communication;Downlink Channel;Underwater Acoustic;Wireless Communication System;Channel Sounder;Optical Wave;Environmental Design Parameters;Local Oscillator;RC;Large Scale Turbulent Eddies;Quantum Field;Drill String;VL Communication
