Quality of Service in Communication Systems
Abstract
The number of mobile broadband users and the volume of the traffic generated by them incessantly escalate every year. Infonetics Research [1, 45, 46, 47 ] has shown that the number of the mobile subscribers has undergone a growth from 5.1 billion in 2010 to 6.5 billion by the end of 2014, while the number of the mobile broadband subscriptions escalated from 548.9 million in 2010 to 1.5 billion by late 2014, while the quantity of the fixed broadband subscribers do not observe any dramatic growth. The results from this research are briefly depicted in Fig. 1.1. Such a disproportional incremental trend in the mobile broadband subscriptions versus fixed and mobile subscriptions stems from the prevalence of mobile broadband smart devices, that are indeed bandwidth killers and cause grave concerns for Mobile Network Operators (MNOs) and infrastructure vendors. As such, there has been a perpetual demand for assigning more bandwidth to the mobile broadband services.
Keywords
Smart Device Resource Allocation Scheme Transport Control Protocol Mobile Broadband Expedite ForwardingReferences
- 1.I. Research (2010) Mobile voip subscribers will near 410 million by 2015; VoLTE still a long way off. Voice, SMS/MMS, and Broadband, Mobile Services and SubscribersGoogle Scholar
- 2.Nokia Solutions and Networks (2013) Enhance mobile networks to deliver 1000 times more capacity by 2020,” White PaperGoogle Scholar
- 3.Intelligence G (2011) Smartphone users spending more ‘face time’ on apps than voice calls or web browsing, Technical ReportGoogle Scholar
- 4.Nokia Siemens Networks (2011) Understanding smartphone behavior in the network, White PaperGoogle Scholar
- 5.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 TechGoogle Scholar
- 6.Ghosh A, Ratasuk R (2011) Essentials of LTE and LTE-A. The Cambridge Wireless Essentials SeriesGoogle Scholar
- 7.Piro G, Grieco L, Boggia G, Camarda P (2010) A two-level scheduling algorithm for qos support in the downlink of LTE cellular networks. In: Wireless Conference (EW)Google Scholar
- 8.Monghal G, Pedersen K, Kovacs I, Mogensen P (2008) Qos oriented time and frequency domain packet schedulers for the UTRAN Long Term Evolution. In: IEEE Vehicular Technology Conference (VTC)Google Scholar
- 9.Soldani D, Jun HX, Luck B (2011) Strategies for mobile broadband growth: traffic segmentation for better customer experience. In: IEEE Vehicular Technology Conference (VTC)Google Scholar
- 10.Larmo A, Lindstrom M, Meyer M, Pelletier G, Torsner J, Wiemann H (2009) The LTE link-layer design. IEEE Commun MagGoogle Scholar
- 11.Ciochina C, Sari H (2010) A review of OFDMA and single-carrier FDMA. In: Wireless Conference (EW)Google Scholar
- 12.Ali S, Zeeshan M (2011) A delay-scheduler coupled game theoretic resource allocation scheme for LTE networks. In: Frontiers of Information Technology (FIT)Google Scholar
- 13.Fudenberg D, Tirole J (1991) Nash equilibrium: multiple nash equilibria, focal points, and pareto optimality. MIT PressGoogle Scholar
- 14.Ranjan P, Sokol K, Pan H (2011) Settling for less—a QoS compromise mechanism for opportunistic mobile networks. In: SIGMETRICS Performance EvaluationGoogle Scholar
- 15.Johari R, Tsitsiklis J (2011) Parameterized supply function bidding: equilibrium and efficiency. Oper ResGoogle Scholar
- 16.Yin H, Alamouti S (2006) OFDMA: a broadband wireless access technology. In: IEEE Sarnoff SymposiumGoogle Scholar
- 17.Chung L (2010) Energy efficiency of QoS routing in multi-hop wireless networks. In; IEEE international conference on electro/information technology (EIT)Google Scholar
- 18.Ekstrom H (2009) QoS control in the 3GPP evolved packet sysem. IEEE Commun MagGoogle Scholar
- 19.3GPP TR 36.814 V0.4.1(2009-02). Technical Report. 3rd Generation Partnership Project;.Technical Specification Group Radio Access NetworkGoogle Scholar
- 20.Alasti M, Neekzad B, Jie H, Vannithamby R (2010) Quality of service in WiMAX and LTE networks [Topics in Wireless Communications]. IEEE Commun MagGoogle Scholar
- 21.Andrews J, Ghosh A, Muhamed R (2007) Fundamentals of WiMAX: understanding broadband wireless netwroking. In: Prentice hall communications engineering and emerging technologies seriesGoogle Scholar
- 22.Mota B (2010) Quality of service in wireless backhaul applications with vortiqa software for service provider equipment. FreeScaleGoogle Scholar
- 23.IXIACOM (2010) Quality of service (QoS) and policy management in mobile data networks. White PaperGoogle Scholar
- 24.Li F (2003) Quality of service, traffic conditioning, and resource management in universal mobile teleccomunication system (UMTS). Doctoral Dissertation, Norwegian University of Science and TechnologyGoogle Scholar
- 25.Gorbil G, Korpeoglu I (2011) Supporting QoS traffic at the network layer in multi-hop wireless mobile networks. In: Wireless Communications and Mobile Computing Conference (IWCMC)Google Scholar
- 26.Jung IY, Jo I, Yu Y, Eom H, Yeom H (2011) Enhancing qos and energy efficiency of realtime network application on smartphone using cloud computing. In: IEEE Asia-Pacific Services Computing Conference (APSCC)Google Scholar
- 27.Tellabs (2012) Quality of service in the wireless Backhaul. White PaperGoogle Scholar
- 28.Stallings W (2013) Data and computer communications. In: William Stallings Books on Computer and Data CommunicationsGoogle Scholar
- 29.Dovrolis C, Stiliadis D, Ramanathan P (2002) Proportional differentiated services: delay differentiation and packet scheduling. IEEE/ACM Trans NetwGoogle Scholar
- 30.Sali A, Widiawan A, Thilakawardana S, Tafazolli R, Evans B (2005) Cross-layer design approach for multicast scheduling over satellite networks. In: 2nd International Symposium on Wireless Communication Systems, 2005Google Scholar
- 31.Lutz E, Cygan D, Dippold M, Dolainsky F, Papke W (1991) The land mobile satellite communication channel-recording, statistics, and channel model. IEEE Trans Veh TechnolGoogle Scholar
- 32.Perros H, Elsayed K (1994) Call admission control schemes: a reviewGoogle Scholar
- 33.Tournier J, Babau J, Olive V (2005) Qinna, a component-based qos architecture. In: Proceedings of the 8th international conference on component-based software engineeringGoogle Scholar
- 34.Ahmed N, Yan H (2004) Access control for mpeg video applications using neural network and simulated annealing. In: Mathematical Problems in EngineeringGoogle Scholar
- 35.Braden R (1994) Integrated services in the internet architecture: an overview. IETF RFC 1633Google Scholar
- 36.Blake S (1998) An architecture for differentiated services. IETF RFC 2475Google Scholar
- 37.Braden R (1997) Resource ReServation Protocol (RSVP)—version 1 functional specification. IETF RFC 2205Google Scholar
- 38.Nichols K (1999) A two-bit differentiated services architecture for the internet. IETF RFC 2638Google Scholar
- 39.Nahrstedt K (1995) The QoS broker. IEEE MultimedGoogle Scholar
- 40.P. C. o. A. o. S. Executive Office of the President and T. (PCAST) (2012) Realizing the full potential of government-held spectrum to spur economic growthGoogle Scholar
- 41.Commission FC (2012) Proposal to create a citizens broadband service in the 3550–3650 MHz band. FCC Docket No. 12–354Google Scholar
- 42.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 CommerceGoogle Scholar
- 43.Richards M, Scheer J, Holm W (2010) Principles of modern radar. SciTech PublishingGoogle Scholar
- 44.Wilson S, Fischetto T (2010) Coastline population trends in the united states: 1960 to 2008. U.S. Department of CommerceGoogle Scholar
- 45.Ghorbanzadeh M, Chen Y, Ma Z, Clancy C (2013) A neural network approach tocategory validation of android applications. International conference on computing, networking and communications (ICNC)Google Scholar
- 46.Ghorbanzadeh M, Abdelhadi A, Clancy C (2014) A utility proportional fairness resource allocation in spectrally radar-coexistent cellular networks. IEEE conference on military communicationsGoogle Scholar
- 47.Ghorbanzadeh M, Abdelhadi A, Clancy C (2015) A utility proportional fairness radio resource block allocation in cellular networks. International conference on computing, networking and communications (ICNC)Google Scholar
- 48.Chen Y, Ghorbanzadeh M, Ma K, Clancy C, McGwier R (2014) A hidden markov model detection of malicious android applications at runtime. 23rd conference on wireless and optical communication (WOCC)Google Scholar
- 49.Ghorbanzadeh M, Chen Y, Clancy C, McGwier R (2013) Fine-grained end-to-end network model via vector quantization and hidden markov processes. IEEE international conference on communications (ICC)Google Scholar
- 50.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. IEEE conference on wireless communications and networking (WCNC)Google Scholar
- 51.Ghorbanzadeh M, Abdelhadi A, Amanna A, Dwyer J, Clancy C (2015) Implementing an optimal rate allocation tuned to the user quality of experience. International conference on computing, networking and communications (ICNC), pp 292–297Google Scholar
- 52.Ghorbanzadeh M, Visotsky E, Moorut P, Yang W, Clancy C (2015) Radar in-band interference effects on macrocell LTE uplink deployments in the US 3.5 GHz band. IEEE international conference on computing, networking and communications (ICNC)Google Scholar
- 53.Ghorbanzadeh M, Visotsky E, Moorut P, Clancy C (2016) Radar interference into LTE base stations in the 3.5 GHz band. Phys CommunGoogle Scholar
- 54.Abdelhadi A, Clancy C, Mitola J (2013) A resource allocation algorithm for users with multiple applications in 4G-LTE, CRAB ’13 proceedings of the 1st ACM workshop on cognitive radio architectures for broadbandGoogle Scholar