Abstract
Mobile broadband networks observe a dramatic increase in data traffic volumes over the next two decades [4]. To meet this demand, large spans of spectrum is an important issue for any RAN system. On the flip side, this demand for more bandwidth exceeds the available commercial spectrum to a large extent and has motivated spectrum-governing agencies such as Federal Communications Commission (FCC) to consider solutions, such as spectrum sharing, which is an elegant solution to leverage shareable spectrum efficiently. However, spectrum sharing is replete with challenges because incumbent systems of the shared bands must be protected from harmful interference [5, 6] from the entrant systems and vice versa. As a case in point, a research [7] showed that fledgling spectrum bands assigned for mobile broadband are occupied by the incumbents, such as radar and satellite systems occasionally.
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References
Ghorbanzadeh M, Visotsky E, Moorut P, Yang W, Clancy C (2015) Radar in-band interference effects on macrocell LTE uplink deployments in the U.S. 3.5 GHz band. In: 2015 International conference on computing, networking and communications (ICNC)
Ghorbanzadeh M, Visotsky E, Moorut P, Yang W, Clancy C (2015) Radar inband and out-of-band interference into lte macro and small cell uplinks in the 3.5 GHz band. In: 2015 IEEE Wireless communications and networking conference (WCNC)
Ghorbanzadeh M, Abdelhadi A, Clancy C (2014) A utility proportional fairness resource allocation in spectrally radar-coexistent cellular networks In: Military communications conference (MILCOM)
Solutions and Networks (2013) Enhance mobile networks to deliver 1000 times more capacity by 2020, White Paper
Khawar A, Abdelhadi A, Clancy TC (2016) MIMO radar waveform design for spectrum sharing with cellular systems: a MATLAB based approach. Springer International Publishing
Deng H, Himed B (2013) Interference mitigation processing for spectrum-sharing between radar and wireless communications systems. IEEE Trans Aerosp Electron Syst 49(3):1911–1919
NTIA (2010) An assessment of the near-term viability of accommodating wireless broadband systems in the 1675-1710 MHz, 1755-1780 MHz, 3500-3650 MHz, 4200-4220 MHz and 4380-4400 MHz bands. U.S. Department of Commerce
Mahal JA, Khawar A, Abdelhadi A, Clancy TC (2015) Radar precoder design for spectral coexistence with coordinated multi-point (comp) system. arXiv:1503.04256
Babaei A, Tranter WH, Bose T (2013) A nullspace-based precoder with subspace expansion for radar/communications coexistence. In: Globecom 2013—signal processing for communications symposium
Ahmed S, Thompson JS, Petillot YR, Mulgrew B (2011) Unconstrained synthesis of covariance matrix for MIMO radar transmit beampattern. IEEE Trans Signal Process 59(8):3837–3849
Khawar A, Abdelhadi A, Clancy TC (2014) QPSK waveform for MIMO radar with spectrum sharing constraints. arXiv:1407.8510
Ghorbanzadeh M, Visotsky E, Moorut P, Yang W, Clancy C (2016) Radar interference into LTE base stations in the 3.5 GHz band. Phys Commun
Tychogiorgos G, Gkelias A, Leung K (2011) A new distributed optimization framework for hybrid adhoc networks. In: GLOBECOM Workshops
Shajaiah H, Abdel-Hadi A, Clancy C (2013) Utility proportional fairness resource allocation with carrier aggregation in 4G-LTE. In: MILCOM
Abdelhadi A, Clancy C (2014) Context-aware resource allocation in cellular networks. In: Dynamic spectrum access networks (Dyspan)
Enhance mobile networks to deliver 1000 times more capacity by 2020
he Presidents Council of Advisors on Science and Technology, Executive Office of the President(PCAST) (2012) Realizing the full potential of government-held spectrum to spur economic growth
Commission FC (2012) Proposal to create a citizens broadband service in the 3550–3650 MHz band. FCC Docket No. 12–354
Cotton M, Dalke R (2014) Spectrum occupancy measurements of the 3550-3650 Megahertz maritime radar band near San Diego, California. NTIA, U.S. Department of Commerce
Andrews J, Ghosh A, Muhamed R (2007) Fundamentals of WiMAX: understanding broadband wireless netwroking. Prentice Hall communications engineering and emerging technologies series
Wilson S, Fischetto T (2010) Coastline population trends in the United States (1960) to 2008. U.S. Department of Commerce
Ghosh A, Ratasuk R (2011) Essentials of LTE and LTE-A. The Cambridge wireless essentials series
Ghorbanzadeh M (2015) Resource allocation and end-to-end quality of service for cellular communications systems in congested and contested environments. Ph.D. thesis. Virginia Tech
3GPP Technical Specification TR (2010-03) (2010) Further advancements for E-UTRA physical layer aspects, Release 9
Reed J, Tripathi N (2014) Cellular communications: a comprehensive and practical guide. Wiley-IEEE Press
Hufford G, Longley A, Kissick W (1982) A guide to the use of the its irregular terrain model in the area prediction mode. U.S. Department of Commerce
Richards M, Scheer J, Holm W (2010) Principles of modern radar. SciTech Publishing
Shumilov V, Trushanin A, Maslennikov R (2012) Design of link-to-system mapping interface for LTE-a uplink system level simulations. Mobile services and subscribers report
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Ghorbanzadeh, M., Abdelhadi, A., Clancy, C. (2017). Spectrum-Shared Resource Allocation. In: Cellular Communications Systems in Congested Environments. Springer, Cham. https://doi.org/10.1007/978-3-319-46267-7_7
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DOI: https://doi.org/10.1007/978-3-319-46267-7_7
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