Multipath fading mitigation using smart antennas

Λεπτομέρειες βιβλιογραφικής εγγραφής
Κύριος συγγραφέας: Μυτιληναίος, Στέλιος
Μορφή: Βιβλίο
Γλώσσα:English
Έκδοση: 2006
Διαθέσιμο Online:http://cris.lib2.uniwa.gr/jspui/handle/123456789/467
_version_ 1780538464856440832
abstract The wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practice
author Μυτιληναίος, Στέλιος
author_facet Μυτιληναίος, Στέλιος
author_sort Μυτιληναίος, Στέλιος
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format Βιβλίο
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institution University of West Attica Campus II
language English
publishDate 2006
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spelling cris-123456789-4672018-12-13T13:24:45Z Multipath fading mitigation using smart antennas Μυτιληναίος, Στέλιος The wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practiceThe wireless propagation channel is characterized by a spatiotemporally varying transfer function, which presents very interesting properties , but also causes severe impairments during the implementation of a telecommunications system. A signal propagating through the wireless channel will in general arrive at the receiver after reflection, refraction and diffraction, i.e. scattering. This causes rapidly fluctuating instantaneous signal strength, and a non-constant local mean and area mean signal power. These phenomena will in turn severely deteriorate the quality of the received signal. Smart antennas are proposed in order to affront multipath fading. By using a smart antenna at the transmitter, receiver or both, a satisfactory mitigation of this phenomenon is being made possible, with a proven beneficial impact to the performance of a telecommunications system. In this presentation, multipath fading is examined, while a genetic algorithm is proposed for the design of smart antennas with multipath-combat characteristics. On this basis, a large number of antenna array designs, with interesting and novel characteristics, are presented. Moreover, stochastic and deterministic channel modeling and simulation tools are developed, incorporating the capability of evaluation of smart antennas' effect. Finally, a number of smart antenna systems and sub-systems are implemented, and their performance is evaluated in a real, strong multipath indoor environment. Thus, their eligibility and capability of mitigating multipath fading is proven in practice 2006 Βιβλίο http://cris.lib2.uniwa.gr/jspui/handle/123456789/467 en
spellingShingle Μυτιληναίος, Στέλιος
Multipath fading mitigation using smart antennas
title Multipath fading mitigation using smart antennas
title_full Multipath fading mitigation using smart antennas
title_fullStr Multipath fading mitigation using smart antennas
title_full_unstemmed Multipath fading mitigation using smart antennas
title_short Multipath fading mitigation using smart antennas
title_sort multipath fading mitigation using smart antennas
url http://cris.lib2.uniwa.gr/jspui/handle/123456789/467