A Frequency Offset Transmit Reference System in Dense Multipath Environments: Propagation Effects and Design Considerations

Ibrahim Bilal, Arjan Meijerink, Marinus Jan Bentum

    Research output: Contribution to journalArticleAcademicpeer-review

    Abstract

    Frequency offset transmit reference (FoTR)—a noncoherent spread spectrum technique—is considered in dense multipath fading environments, in the context of wideband communication. The interplay between system parameters and propagation effects is investigated. Analytical relations between key design parameters and the channel delay spread are derived, which provide a framework for determining reasonable system parameters that optimize the performance. An approximated closed-form expression for the outage probability is also obtained, which is shown to be fairly accurate for low outage probabilities. It is shown that FoTR suffers significantly from noise-enhancement, but, is nonetheless, robust against frequency-selective fading. A large value of frequency offset can significantly deteriorate the performance, particularly in environments with large channel delay spreads. This restricts the maximum data rate as well as the multiple-access capability of the scheme. Despite the limitations, FoTR can be a useful communication scheme for low data rate sensor networks deployed in dense multipath environments, particularly where the design demands a simple receiver and a low outage probability.
    Original languageEnglish
    Number of pages15
    JournalIEEE Transactions on Wireless Communications
    DOIs
    Publication statusE-pub ahead of print/First online - 4 Nov 2019

    Fingerprint

    Frequency Offset
    Multipath
    Outages
    Outage Probability
    Propagation
    Fading
    Frequency selective fading
    Multipath fading
    Communication
    Spread Spectrum
    Sensor networks
    Multiple Access
    Parameter Design
    Sensor Networks
    Closed-form
    Receiver
    Enhancement
    Optimise
    Design

    Cite this

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    title = "A Frequency Offset Transmit Reference System in Dense Multipath Environments: Propagation Effects and Design Considerations",
    abstract = "Frequency offset transmit reference (FoTR)—a noncoherent spread spectrum technique—is considered in dense multipath fading environments, in the context of wideband communication. The interplay between system parameters and propagation effects is investigated. Analytical relations between key design parameters and the channel delay spread are derived, which provide a framework for determining reasonable system parameters that optimize the performance. An approximated closed-form expression for the outage probability is also obtained, which is shown to be fairly accurate for low outage probabilities. It is shown that FoTR suffers significantly from noise-enhancement, but, is nonetheless, robust against frequency-selective fading. A large value of frequency offset can significantly deteriorate the performance, particularly in environments with large channel delay spreads. This restricts the maximum data rate as well as the multiple-access capability of the scheme. Despite the limitations, FoTR can be a useful communication scheme for low data rate sensor networks deployed in dense multipath environments, particularly where the design demands a simple receiver and a low outage probability.",
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    A Frequency Offset Transmit Reference System in Dense Multipath Environments: Propagation Effects and Design Considerations. / Bilal, Ibrahim ; Meijerink, Arjan ; Bentum, Marinus Jan.

    In: IEEE Transactions on Wireless Communications, 04.11.2019.

    Research output: Contribution to journalArticleAcademicpeer-review

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    T1 - A Frequency Offset Transmit Reference System in Dense Multipath Environments: Propagation Effects and Design Considerations

    AU - Bilal, Ibrahim

    AU - Meijerink, Arjan

    AU - Bentum, Marinus Jan

    PY - 2019/11/4

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    AB - Frequency offset transmit reference (FoTR)—a noncoherent spread spectrum technique—is considered in dense multipath fading environments, in the context of wideband communication. The interplay between system parameters and propagation effects is investigated. Analytical relations between key design parameters and the channel delay spread are derived, which provide a framework for determining reasonable system parameters that optimize the performance. An approximated closed-form expression for the outage probability is also obtained, which is shown to be fairly accurate for low outage probabilities. It is shown that FoTR suffers significantly from noise-enhancement, but, is nonetheless, robust against frequency-selective fading. A large value of frequency offset can significantly deteriorate the performance, particularly in environments with large channel delay spreads. This restricts the maximum data rate as well as the multiple-access capability of the scheme. Despite the limitations, FoTR can be a useful communication scheme for low data rate sensor networks deployed in dense multipath environments, particularly where the design demands a simple receiver and a low outage probability.

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