Space-time channel modeling, simulation, and coding

Several emerging wireless applications require direct transmission between mobile terminals. Examples of these applications are mobile ad-hoc wireless networks, intelligent transportation systems, relay-based cellular networks, and future combat systems. Development of these mobile-to-mobile (M-to-M...

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Bibliographic Details
Main Author: Zajic, Alenka
Published: Georgia Institute of Technology 2009
Subjects:
CPM
Online Access:http://hdl.handle.net/1853/26569
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spelling ndltd-GATECH-oai-smartech.gatech.edu-1853-265692013-01-07T20:29:46ZSpace-time channel modeling, simulation, and codingZajic, AlenkaSpace-time codingCPMChannel measurementsChannel simulationChannel modelingMIMO mobile-to-mobile communicationsWireless communication systemsMobile communication systemsAntenna arraysSeveral emerging wireless applications require direct transmission between mobile terminals. Examples of these applications are mobile ad-hoc wireless networks, intelligent transportation systems, relay-based cellular networks, and future combat systems. Development of these mobile-to-mobile (M-to-M) systems depends on a good characterization of channel propagation. Another important consideration in modern communication systems is the use of multipath propagation to improve reliability and capacity of wireless systems. This is achieved by employing multiple antennas in multiple-input multiple-output (MIMO) systems and using techniques such as transmit and receive diversity. Considering the demand for high-speed wireless services, MIMO M-to-M systems are the leading candidates for future communication systems. To enable the successful design of MIMO M-to-M systems, our research focuses on modeling of MIMO M-to-M multipath fading channels and on diversity techniques for MIMO systems. Specifically, we propose two-dimensional (2-D) and three-dimensional (3-D) MIMO M-to-M statistical channel models that encompass narrowband and wideband MIMO channel scenarios for macro- and micro-cell environments. Furthermore, we validate the new models against measured data and find very close agreement between them. Using our 3-D models, we also investigate different antenna array configurations and their effect on the capacity of MIMO M-to-M systems. Contrary to common assumptions, we have found that there is no significant loss of capacity if the antenna array is tilted from the horizontal plane. Finally, we propose the design criteria for space-time coded continuous phase modulated systems. Our work would provide other researchers the tools needed to design and test future MIMO M-to-M communication systems.Georgia Institute of Technology2009-01-22T15:46:39Z2009-01-22T15:46:39Z2008-07-31Dissertationhttp://hdl.handle.net/1853/26569
collection NDLTD
sources NDLTD
topic Space-time coding
CPM
Channel measurements
Channel simulation
Channel modeling
MIMO mobile-to-mobile communications
Wireless communication systems
Mobile communication systems
Antenna arrays
spellingShingle Space-time coding
CPM
Channel measurements
Channel simulation
Channel modeling
MIMO mobile-to-mobile communications
Wireless communication systems
Mobile communication systems
Antenna arrays
Zajic, Alenka
Space-time channel modeling, simulation, and coding
description Several emerging wireless applications require direct transmission between mobile terminals. Examples of these applications are mobile ad-hoc wireless networks, intelligent transportation systems, relay-based cellular networks, and future combat systems. Development of these mobile-to-mobile (M-to-M) systems depends on a good characterization of channel propagation. Another important consideration in modern communication systems is the use of multipath propagation to improve reliability and capacity of wireless systems. This is achieved by employing multiple antennas in multiple-input multiple-output (MIMO) systems and using techniques such as transmit and receive diversity. Considering the demand for high-speed wireless services, MIMO M-to-M systems are the leading candidates for future communication systems. To enable the successful design of MIMO M-to-M systems, our research focuses on modeling of MIMO M-to-M multipath fading channels and on diversity techniques for MIMO systems. Specifically, we propose two-dimensional (2-D) and three-dimensional (3-D) MIMO M-to-M statistical channel models that encompass narrowband and wideband MIMO channel scenarios for macro- and micro-cell environments. Furthermore, we validate the new models against measured data and find very close agreement between them. Using our 3-D models, we also investigate different antenna array configurations and their effect on the capacity of MIMO M-to-M systems. Contrary to common assumptions, we have found that there is no significant loss of capacity if the antenna array is tilted from the horizontal plane. Finally, we propose the design criteria for space-time coded continuous phase modulated systems. Our work would provide other researchers the tools needed to design and test future MIMO M-to-M communication systems.
author Zajic, Alenka
author_facet Zajic, Alenka
author_sort Zajic, Alenka
title Space-time channel modeling, simulation, and coding
title_short Space-time channel modeling, simulation, and coding
title_full Space-time channel modeling, simulation, and coding
title_fullStr Space-time channel modeling, simulation, and coding
title_full_unstemmed Space-time channel modeling, simulation, and coding
title_sort space-time channel modeling, simulation, and coding
publisher Georgia Institute of Technology
publishDate 2009
url http://hdl.handle.net/1853/26569
work_keys_str_mv AT zajicalenka spacetimechannelmodelingsimulationandcoding
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