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光载无线(RoF)与混合无源光网络(PON)无缝全双工集成的关键技术

摘要第5-6页
ABSTRACT第6-7页
ACKNOWLEDGEMENTS第8-29页
Chapter 1 Introduction第29-52页
    1.1 Integration of radio over fiber(RoF)with passive optical network(PON)第29-33页
    1.2 Research objectives第33-34页
    1.3 Contemporary work第34-40页
    1.4 Research contribution第40-42页
    1.5 Thesis overview第42-44页
    References第44-52页
Chapter 2 Characterization of Radio over Fiber(RoF) Networks and Systems第52-81页
    2.1 Radio spectrum第52-53页
    2.2 Multi gigabit/s wireless network第53-63页
        2.2.1 Wireless fidelity(WiFi)第54-55页
        2.2.2 Worldwide interoperability for microwave access(WiMAX)第55-57页
        2.2.3 Long term evolution(LTE)第57-58页
        2.2.4 60-GHZ millimeter wave第58-63页
            2.2.4.1 Millimeter wave applications第58-59页
            2.2.4.2 Millimeter wave spectrum allocation第59-60页
            2.2.4.3 Standardization of millimeter wave band第60-63页
                2.2.4.3.1 IEEE 802.15.3c第61页
                2.2.4.3.2 ECMA-387第61-62页
                2.2.4.3.3 Wireless Gigabit Alliance第62页
                2.2.4.3.4 IEEE 802.11ad第62-63页
    2.3 Overview of Radio over Fiber technology第63-66页
        2.3.1 Radio over Fiber systems第64-66页
    2.4 Pragmatic design approaches for applying RoF systems第66-75页
        2.4.1 Fiber-wireless(FiWi)第68页
        2.4.2 Wireless optical broadband access network(WOBAN)第68-70页
        2.4.3 Metro-access ring integrated network(MARIN)第70-71页
        2.4.4 Grid based reconfigurable optical-wireless network(GROW-Net)第71-73页
        2.4.5 Fiber-optic networks for distributed,heterogeneous radio architectures and service provisioning (FUTON)第73-74页
        2.4.6 A converged copper-optical-radio OFDMA based access network with high capacity and flexibility(ACCORDANCE)第74-75页
    2.5 Chapter summery第75-77页
    References第77-81页
Chapter 3 Wired Optical Access Network Architecture and System Design第81-131页
    3.1 Evolution of optical access network第81-87页
        3.1.1 Point-to-point optical network第83页
        3.1.2 Active optical network(AON)第83-86页
            3.1.2.1 Fiber to the cabinet(FTTCab)第84页
            3.1.2.2 Fiber to the node(FTTN)第84-85页
            3.1.2.3 Fiber to the building (FTTB)第85页
            3.1.2.4 Fiber to the home (FTTH)第85-86页
        3.1.3 Passive optical network第86页
        3.1.4 Ring based optical network第86-87页
    3.2 Multiple accesstechnique in PONs第87-95页
        3.2.1 Time division multiple access PON(TDMA-PON)第88-90页
        3.2.2 Subcarrier multiple access(SCMA)PON第90-91页
        3.2.3 Wavelength division multiple access(WDMA)PON第91-92页
        3.2.4 Optical code division multiple access(OCDMA)PON第92-94页
        3.2.5 Orthogonal frequency division multiple access(OFDMA)PON第94-95页
    3.3 Comparative analysis of multiple access techniques第95-97页
    3.4 The PON standards overview第97-99页
        3.4.1 Broadband PON Standard第97-98页
        3.4.2 Gigabit PON Standard第98页
        3.4.3 Ethernet PON standard第98-99页
    3.5 Hybrid PON第99-113页
        3.5.1 A novel high capacity Hybrid PON system第99-107页
            3.5.1.1 Simulation setup and working principle第100-104页
            3.5.1.2 Results and discussion第104-107页
        3.5.2 A 32-wavelength remotely seeded colorless hybrid PON with QPSK modulation第107-113页
            3.5.2.1 Concept and theoretical analysis for remotely seeded PON第107-108页
            3.5.2.2 Simulation setup and working principle for 32-wavelenght system第108-110页
            3.5.2.3 Results and discussion第110-113页
    3.6 Next generation of passive optical networks stage-2 (NG-PON2)第113-124页
        3.6.1 A novel analysis of available options for wavelength group selection and transceiver design for NG-PON2第114-124页
            3.6.1.1 Concept and Theoretical Analysis第115-116页
            3.6.1.2 Simulation Setup and working Principle第116-117页
            3.6.1.3 Setup for wavelength group selection第117页
            3.6.1.4 Setup for CML vs. MZM第117-120页
            3.6.1.5 Setup for remotely fed colorless ONU vs. tunable transceivers第120-122页
            3.6.1.6 Results and discussions第122-124页
    3.7 Chapter summery第124-126页
    References第126-131页
Chapter 4 Excogitation of 60GHz Millimeter Radio Wave Technology andEnabling Techniques第131-158页
    4.1 Enabling techniques for photonic generation of 60GHz millimeter wave第131-145页
        4.1.1 Optical mm-wave generation by a directly modulated laser (DML)第131-132页
        4.1.2 Dual laser sources第132-135页
            4.1.2.1 Optical phase locked loop (OPLL)第134页
            4.1.2.2 Optical injection phase locked loop (OIPLL)第134-135页
        4.1.3 External intensity modulation第135-137页
            4.1.3.1 Optical sideband millimeter wave第135-137页
        4.1.4 Four wave mixing (FWM)第137-138页
        4.1.5 Stimulated Brillouin scattering (SB S)第138-140页
        4.1.6 Phase modulation techniques第140-141页
            4.1.6.1 A fiber Bragg grating (FBG) based phase modulation technique第140-141页
            4.1.6.2 A differential phase shift keying (DPSK) modulation technique第141页
        4.1.7 Orthogonal frequency division multiplexing (OFDM) RoF system第141-143页
        4.1.8 A millimeter wave generation system based on semiconductor optical amplifier第143-144页
        4.1.9 12-tupling millimeter wave generation technique第144-145页
    4.2 Multi-band generation techniques for convergence with PON第145-150页
        4.2.1 Multiband signal generation by hybrid subcarrier modulation第146-147页
        4.2.2 Multiband optical carrier generation technique第147-148页
        4.2.3 Multi-wavelengths generation techniques第148-150页
            4.2.3.1 A phase modulator based multi-wavelength generation第148-149页
            4.2.3.2 A MZM-PM multi wavelength generation第149-150页
    4.3 A novel converged mm-wave and wire-line data generation technique by single Mach Zehnder technique第150-154页
        4.3.1 Simulation setup and working principle第150-152页
        4.3.2 Results and discussions第152-154页
    4.4 Chapter summery第154-156页
    References第156-158页
Chapter 5 Seamless Integration of Hybrid Passive Optical Networks and Radioover Fiber第158-193页
    5.1 RoF and PON integration strategies第158-160页
    5.2 Multiplexing Schemes for integration of RoF with PON第160-165页
        5.2.1 A time division multiplexing scheme for integration第160-162页
        5.2.2 A subcarrier multiplexing scheme for integration第162-163页
        5.2.3 A coarse wavelength division multiplexing scheme for integration第163页
        5.2.4 A dense wavelength division multiplexing scheme for integration第163-164页
        5.2.5 A proposed scheme for hybrid PON integration with 60GHz mm-wave第164-165页
    5.3 A novel proposed techniques for integration of 2.5 Gbit/s RoF with XG-PON第165-167页
        5.3.1 Concept and theoretical analysis第165-167页
    5.4 Topological architectures for integrated systems第167-173页
        5.4.1 Accompaniment of legacy wireless services in RoF-PON integrated systems第170-171页
        5.4.2 Signal transmission options for high capacity wireless networks第171-172页
        5.4.3 Radio signals propagation over hybrid passive optical networks第172-173页
    5.5 The effectuation of mm-wave RoF architetures第173-178页
        5.5.1 The point-to-point mm-wave RoF structural design第174-175页
        5.5.2 The active star mm-wave RoF structural design第175-176页
        5.5.3 The point-to-multipoint mm-wave RoF structural design第176-177页
        5.5.4 The multipoint-to-multipoint mm-wave RoF structural design第177-178页
    5.6 Possible impairments during integrated signal transmission in RoF-PON shared architectures第178-179页
    5.7 TV integration with PON第179-188页
        5.7.1 A novel converged PON design for UHD-TV distribution第180-181页
        5.7.2 Simulation Setup第181-186页
        5.7.3 Simulation Results第186-188页
    5.8 Chapter summery第188-190页
    References第190-193页
Chapter 6 Conclusion and Prospective第193-199页
    6.1 Conclusion第193-196页
    6.2 Prospective第196-199页
List of Papers第199-200页

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