电信科学 ›› 2014, Vol. 30 ›› Issue (9): 116-127.doi: 10.3969/j.issn.1000-0801.2014.09.017
孟飞,兰巨龙,胡宇翔
出版日期:
2014-09-20
发布日期:
2017-07-05
基金资助:
Fei Meng,Julong Lan,Yuxiang Hu
Online:
2014-09-20
Published:
2017-07-05
摘要:
网络流量规模高速增长且视频化趋势日益严重,使得传统网络为了数据传输而设计的体系架构在服务质量(QoS)保障、灵活性、可扩展性等方面经受着严峻的考验。工业界和学术界提出了很多新型网络体系结构,力求在体系结构层面增强网络的QoS保障能力。从“改良式”和“革命式”两种思路对互联网新型服务质量保障技术进行了详细分析,并介绍了可重构网络的宏电路技术且给出了部署考虑。可重构网络体系结构能以其对业务的适应性、功能的可扩展性等特点,适应未来网络业务发展,满足现有网络兼容融合演进的需求,为未来网络的QoS保障设计提供了一个解决途径。
孟飞,兰巨龙,胡宇翔. 互联网新型服务质量保障技术研究[J]. 电信科学, 2014, 30(9): 116-127.
Fei Meng,Julong Lan,Yuxiang Hu. Researcb on New Internet Quality of Service Guarantee Tecbnology[J]. Telecommunications Science, 2014, 30(9): 116-127.
1 | Feamster N , Gao L X , Rexford J . How to lease the internet in your spare time. ACM SIGCOMM Communication Review, 2007,37(1): 61~64 |
2 | Cisco System. Visual networking index(VNI)forecast. , 2012 |
3 | Aurrecoechea C , Campbell A T , Hauw L . A survey of QoS architectures. Multimedia Systems, 1998,6(3): 138~151 |
4 | NSF NeTS FIND Initiative. Future internet design. , 2005 |
5 | Elliott C . GENI: opening up new classes of experiments in global networking. IEEE Internet Computing, 2010,14(1): 39~42 |
6 | EU FP7 ICT Challenge One. , 2005 |
7 | Gavras A , Karila A , Fdida S , et al. Future internet research and experimentation: the FIRE initiative. ACM SIGCOMM Computer Communication Review, 2007,37(3): 89~92 |
8 | The European Community's Seventh Programme. The FP7 4WARD project. , 2007 |
9 | The European Community's Seventh Programme. The FP7 autonomic internet project. , 2007 |
10 | National Institute of Information(NICT). AKARI project. , 2007 |
11 | 兰巨龙 , 程东年 , 胡宇翔 . 可重构信息通信基础网络体系研究. 通信学报, 2014,35(1): 128~139 |
吴建平 , 林嵩 , 徐恪 , 等. 可演进的新一代互联网体系结构研究进展. 计算机学报, 2012,35(6): 1094~1108 | |
13 | 张宏科 , 罗洪斌 . 智慧协同网络体系基础研究进展. 电子学报, 2013,41(7): 1249~1254 |
14 | Saltzer H , Reed D P , Clark D , et al. End to end argument in system design. ACM Transactions on Computing System, 1984,2(4): 277~288 |
15 | Sushant J , Alok K , Subhasree M , et al. B4: experience with a globally-deployed software defined WAN. Proceedings of the ACM SIGCOMM 2013 Conference on SIGCOMM, Hong Kong, China 2013: 3~14 |
10 | Braden R , Clark D , Shenker S . Integrated services in the internet architecture: an overview. , 1994 |
17 | Flavius P , Ferdi P . A survey on the evolution of RSVP. IEEE Communications Surveys & Tutorials, 2013,15(4): 1859~1887 |
18 | Shenker S , Partridge C , Guerin R . Specification of guaranteed quality of service. , 1997 |
19 | Wroclawski J . Specification of the controlled-load network element service. , 1997 |
20 | Lukasz B , Villy B I , Georgios K . Integrated service resource reservation using queueing networks theory. IET Networks, 2014,3(1): 16~21 |
21 | Irena A , Charlie K , Radia P . Scalable per-flow resource management for large hierarchical networks. Proceedings of the IEEE 13th International Conference on High Performance Switching and Routing, Belgrade, Serbia, 2012: 160~167 |
22 | Blake S , Black D , Carlson M , et al. An architecture for differentiated services. , 1998 |
23 | Nichols K , Black D L , Blake S , et al. Definition of the differentiated services field (DS field)in the IPv4 and IPv6 headers. , 1998 |
24 | Shigeo S . Fundamental trade-offs between resource separation and resource share for quality of service guarantees. IET Networks, 2014,3(1): 4~15 |
25 | Flavius P , Ferdi P . A QoS enabled two-stage service differentiation model for the internet. Proceedings of the 6th International Conference on Signal Processing and Communication System, Gold Coast, QLD, 2012: 1~10 |
26 | Lu L Y , Du H F , Liu R P . CHOKeR: a novel AQM algorithm with proportional bandwidth allocation and TCP protection. IEEE Transactions on Industrial Informatics, 2014,10(1): 637~644 |
27 | Geng X M , Luo A W , Sun Z J , et al. Markov chains based dynamic bandwidth allocation in DiffServ network. IEEE Communications Letters, 2012,16(10): 1711~1714 |
28 | Xiao X P , Lionel M N . Internet QoS: a big picture. IEEE Network, 1999,12(2): 8~18 |
29 | Khan J A , Alnuweiri H M . A fuzzy constraint-based routing algorithm for traffic engineering. Proceedings of the 2004 IEEE Global Telecommunications Conference(GLOBECOM'04), Dallas, TX, USA, 2004: 1366~1372 |
30 | Hodzic H , Secerbegovic E . Online constraint-based routing as support for MPLS traffic engineering. Proceedings of the 51st International Symposium ELMAR-2009, Zadar, Yugoslavia, 2009: 127~130 |
31 | Rosen E , Viswanathan A , Callon R . Multiprotocol label switching architecture. , 2001 |
Awduche D , Chiu A , Elwalid A , et al. Overview and principles of internet traffic engineering. , 2002 | |
33 | Awduche D , Malcolm J , Agogbua J , et al. Requirements for traffic engineering over MPLS. , 1999 |
34 | Asif M , Farid Z , Lal M , et al. Analysis of the similarities and differences between MPLS label distribution protocols RSVP and CR-LDP. International Journal of Computer Science, 2012,54(9): 48~55 |
35 | Swallow G , Aggarwal R , Ali Z . Non-penultimate hop popping behavior and out-of-band mapping for RSVP-TE label switched paths. , 2012 |
36 | Faueheur F L , Lai W . Requirement for Support of Differentiated Services-Aware MPLS Traffic Engineering. IETF RFC3564, 2003 |
37 | Chen C L . A proposal of next generation network: QoS mapping for MPLS-DiffServ and label forwarding. Proceedings of the 5th International Conference on BioMedical Engineering and Informatics(BMEI 2012), Chongqing, China, 2012: 1416~1419 |
38 | Francois F , Wang N , Moessner K , et al. Leveraging MPLS backup paths for distributed energy-aware traffic engineering. IEEE Transactions on Network and Science Management, 2014,11(2): 235~249 |
39 | Jain A , Chaudhari N S . Genetic algorithm for optimizing network load balance in MPLS network. Proceedings of the Fourth International Conference on Computational Intelligence and Communication Networks, Mathura, India, 2012: 122~126 |
40 | Haas R . Forwarding and control element separation(ForCES) MIB. , 2010 |
41 | Doria A , Haas R , Salim J H , et al. Forwarding and control element separation(ForCES)protocol specification. , 2010 |
42 | Yang L , Dantu R , Anderson T , et al. Forwarding and control element separation (ForCES)framework. , 2004 |
43 | 柯辽原 . ForCES 通道传输方案及性能模型研究. 浙江工商大学博士学位论文 2011 |
郑安枕 . 基于网络处理器的ForCES 路由器中 QoS 技术实现研究. 浙江工商大学博士学位论文 2006 | |
45 | Nick M , Tom A , Hari B , et al. OpenFlow: enabling innovation in campus networks. ACM SIGCOMM Computer Communication Review, 2008,38(2): 69~74 |
46 | Phemius K , Bouet M . Monitoring latency with OpenFlow. Proceedings of the 9th International Conference on Network and Service Management, Zurich, Switzerland, 2013: 122~125 |
47 | Khan A , Kiess W , Perez-Caparros D , et al. Quality-of-service (QoS)for virtual networks in OpenFlow MPLS transport networks. Proceedings of the IEEE 2nd Interational Conference on Cloud Networking, San Francisco, CA, USA, 2013: 10~17 |
48 | Egilmez H E , Dane S T , Bagci K T , et al. OpenQoS: an OpenFlow controller design for multimedia delivery with end-to-end quality of service over software-defined networks. Proceedings of the 2012 Asia-Pacific Signal and Information Processing Association Annual Summit and Conference, Hollywood, CA, USA, 2012: 1~8 |
49 | Owens H , Durresi A . Video over software-defined networking (VSDN). Proceedings of the 16th International Conference on Network-Based Information Systems, Gwangju,Korea, 2013: 44~51 |
50 | Sharafat A R , Das S , Parulkar G , et al MPLS-TE and MPLS VPNS with OpenFlow. Proceedings of ACM SIGCOMM 2011 Conference, Toronto, ON, Canada, 2011: 452~453 |
51 | 程东年 , 汪斌强 , 王保进 , 等. 网络结构自调整的柔性内涵初探. 通信学报 2012,33(8): 214~222 |
52 | Sun L , Lan J L . A flow-view based dynamic QoS guarantee mechanism. Proceedings of the 4th IEEE International Conference on Software Engineering and Service Science, Beijing, China, 2013: 882~885 |
53 | 兰巨龙 , 邢池强 , 胡宇翔 , 等. 可重构技术与未来网络体系架构. 电信科学 2013,29(8): 16~23 |
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