An AWG-based WDM-PON architecture employing WDM/TDMA transmission for upstream traffic with dynamic bandwidth allocation

被引:3
作者
Han, Kyeong-Eun [1 ]
Yang, Won-Hyuk [1 ]
Datta, Debasish [2 ]
Kim, Young-Chon [1 ]
机构
[1] Chonbuk Natl Univ, Dept Comp Sci, Jeonju, South Korea
[2] Indian Inst Technol, Dept Elect & Elect Commun Engn, Kharagpur, W Bengal, India
关键词
wavelength-division multiplexing; passive optical network; dynamic bandwidth allocation; arrayed-waveguide grating;
D O I
10.1007/s11107-007-0094-x
中图分类号
TP [自动化技术、计算机技术];
学科分类号
0812 ;
摘要
In this article, we examine a candidate architecture for wavelength-division multiplexed passive optical networks (WDM-PONs) employing multiple stages of arrayed-waveguide gratings (AWGs). The network architecture provides efficient bandwidth utilization by using WDM for downstream transmission and by combining WDM with time-division multiple access (TDMA) for upstream transmission. In such WDM-PONs, collisions may occur among upstream data packets transmitted simultaneously from different optical networking units (ONUs) sharing the same wavelength. The proposed MAC protocol avoids such collisions using a request/permit-based multipoint control protocol, and employs a dynamic TDMA-based bandwidth allocation scheme for upstream traffic, called minimum-guaranteed maximum request first (MG-MRF), ensuring a reasonable fairness among the ONUs. The entire MAC protocol is simulated using OPNET and its performance is evaluated in terms of queuing delay and bandwidth utilization under uniform as well as non-uniform traffic distributions. The simulation results demonstrate that the proposed bandwidth allocation scheme (MG-MRF) is able to provide high bandwidth utilization with a moderately low delay in presence of non-uniform traffic demands from ONUs.
引用
收藏
页码:191 / 202
页数:12
相关论文
共 12 条
[1]  
An F.-T., 2003, 2 S PHOT NETW COMP N, P1449
[2]  
EFFENBERGER FJ, 2002, 11 INT WORKSH OPT HY
[3]   An evaluation of architectures incorporating wavelength division multiplexing [J].
Feldman, RD ;
Harstead, EE ;
Jiang, S ;
Wood, TH ;
Zirngibl, M .
JOURNAL OF LIGHTWAVE TECHNOLOGY, 1998, 16 (09) :1546-1559
[4]   Access PON using downstream 1550-nm WDM routing and upstream 1300-nm SCMA combining through a fiber-grating router [J].
Giles, CR ;
Feldman, RD ;
Wood, TH ;
Zirngibl, M ;
Raybon, G ;
Strasser, T ;
Stulz, L ;
McCormick, A ;
Joyner, CH ;
Doerr, CR .
IEEE PHOTONICS TECHNOLOGY LETTERS, 1996, 8 (11) :1549-1551
[5]   High-speed point-to-point and multiple broadcast services delivered over a WDM passive optical network [J].
Iannone, PP ;
Reichmann, KC ;
Frigo, NJ .
IEEE PHOTONICS TECHNOLOGY LETTERS, 1998, 10 (09) :1328-1330
[6]  
*IEEE, IEEE 082 3AH ETH 1 M
[7]   The arrayed-waveguide grating-based single-hop WDM network: An architecture for efficient multicasting [J].
Maier, M ;
Scheutzow, M ;
Reisslein, M .
IEEE JOURNAL ON SELECTED AREAS IN COMMUNICATIONS, 2003, 21 (09) :1414-1432
[8]  
MARIO G, 2000, IEEE OSA J LIGHTWAVE, V18, P125
[9]  
McCreary S., TRENDS WIDE AREA IP
[10]   Arrayed waveguide gratings for wavelength routing [J].
McGreer, KA .
IEEE COMMUNICATIONS MAGAZINE, 1998, 36 (12) :62-68