异构部署网络的无线资源管理与系统性能评估
|
摘要
伴随着移动用户数的迅猛增长,以及无线通信技术在网络带宽、硬件配置、软件应用上的不断发展,各种多媒体方式的数据业务需求呈现出爆炸式的增长,移动用户对随时随地的泛在自由通信需求以及对更高服务质量的需求使得系统性能出现了新的缺口。今年初,全球移动通信用户数已超越60亿,国际电信联盟也正式通过了将LTE-Advanced和802.16m技术规范确立为IMT-Advanced国际标准的议题。蜂窝移动通信系统的商用之路已经走到了后3G时代,并逐步向4G时代跨越。
在4G的范畴内,传统蜂窝网络架构面临着发展与演进的巨大挑战。数据业务呈现出指数级的增长,并且具有较强的集聚性；高频段通信使得传输距离不断缩短；与骨干网光纤相比,空口接入网的容量受限制约了系统整体容量的提升；信息产业能耗的持续增加,产业对高密度、低功耗节点的需求不断增加；物理层如协作传输等诸多新技术对网络架构的演进也存在着多种需求。在这种背景下,异构部署网络逐渐走进人们的视野,并在4G组网中扮演了重要角色。异构部署网络,是在传统蜂窝宏基站覆盖的基础上,通过增加新的网络节点来保证覆盖、提高系统性能的网络。
论文针对蜂窝网络架构的发展与演进的需求,选取了异构部署中具有代表性的分布式天线与热点覆盖组网两部分内容进行研究。这两种组网方式较为接近,又各具特点。在充分调研国内外研究的基础上,结合两者各自的系统特征,论文针对分布式天线与热点覆盖开展了一系列的无线资源管理策略研究,对其进行了理论分析与系统性能评估。
在分布式天线系统中,各天线端口可以实现预编码联合传输。针对该问题,首先选取若干种主流线性预编码策略,对其在分布式天线系统中的可行性及算法效果进行了评估。接着,鉴于块对角化算法在分布式天线系统下的良好表现,针对回传链路不充分与异步干扰等非理想因素,分别提出了半联合块对角化算法与异步时延下增强块对角化算法,能够有效抵抗非理想因素,实现更好的系统性能。
在分布式天线结合正交频分复用多址技术的系统中,联合资源分配的维度增加。针对该内容,论文首先建立了最大化系统频谱利用率的联合资源分配问题,并通过拉格朗日对偶分解对其进行求解。其中,对偶问题求解使用了空间解析几何法。接着,论文对系统功率效率进行了建模和分析,提出了比例功率分配法。将比例功率分配法应用到联合资源分配中,可以以较小的频谱效率开销,换来可观的功率效率提升。
由于热点覆盖组网涉及到诸多细节,论文对其主要内容进行了性能评估与优化研究,包括不同的频分方案、不同的小区范围扩展、不同的拓扑场景、不同热点基站天线类型等。在评估中也获得了系统优化的准则。
在热点基站的选址问题上,论文首先论证了直观选址存在的缺陷。接着,提出了一种联合考虑热点基站功率、用户密度、干扰环境、用户服务质量要求等因素的选址策略,为热点基站的选址范围提出约束。通过能够联合考虑多种因素,有效的均衡负载,提高小区边缘性能。
在热点覆盖的小区选择方面,针对传统小区范围扩展在各个热点基站上叠加固定偏移量的不合理性,为每个小区设计了独特的接入偏移量。其计算与小区所处位置的干扰环境以及小区当前的用户密度有关。所提偏移量能够以更小的平均频谱效率损失换来更好的负载均衡。论文对其在实际部署中的可行性也做出了讨论。
最后,论文对两种组网方式进行了比较分析。在现有评估异构部署方法的基础上建立了一套新的评估办法,针对分布式天线与单层热点覆盖的理论容量进行了分析讨论,设计了实际可行方案。结果显示,在一个干扰受限的部署环境与评估模型中,分布式天线系统得益于在一个区域内的协作,性能优于热点覆盖网络。
分布式天线系统与热点覆盖组网是异构部署网络中的重要内容,代表了现有蜂窝网络架构发展与演进的趋势,契合了下一代蜂窝移动通信系统的需求目标。论文依据二者各自的系统特征,从理论分析与性能评估两方面展开了研究。论文所提出的分布式天线系统的联合预编码与联合资源分配策略,以及热点覆盖组网的系统优化准则与站址选择、小区选择策略,可以为其实际部署提供借鉴,以期二者在下一代移动通信系统中得到更加广泛的应用。
With the rapid growth of the number of mobile users, and the continuous development of the wireless communication technologies in network bandwidth, hardware configurations and software applications, the need for massive multi-media data services is facing an explosion. The future demands from mobile users for ubiquitous communication and higher quality of service can not be satisfied by current system performance. In the beginning of2012, the number of global mobile user has exceeded six billion. Meanwhile, the International Telecommunication Union has formally adopted the LTE-Advanced and802.16m technical specifications as the international standards of IMT-Advanced. Commercial road in the cellular mobile communication system has come to the beyond-3rd Generation era, and gradually move towards the4th Generation era.
In the context of4G, the development and evolution of traditional cellular network architecture is facing great challenges. Data services are showing exponential growth and clustered distribution; high frequency band communication shortens the transmission distance; compared to the backbone fiber network, the capacity of radio access network is limited; the energy consumption of the information industry continues to grow, calling for high-density and low-power nodes; physical layer and many other new technologies require the network architecture to be changed. In this context, heterogeneous network is playing a more and more important role in the4G network. By adding new nodes to traditional cellular network, it can improve the system coverage and performance.
This thesis focuses on the requirements of development and evolution of cellular network architectures and selects two representative heterogeneous deployments as the main study items, which are Distributed Antenna and Picocell Systems. They are similar but also with key different characteristics. Based on the investigation of the domestic and international research, and considering the main features of the two systems, a series of radio resource management strategies for Distributed Antenna and Picocell Systems are proposed and related system evaluations are made.
In Distributed Antenna Systems, precoding based joint transmission can be used by distributed antenna ports. For this topic, firstly the feasibility and performance of a number of linear precoding strategies are evaluated. Since the block diagonalization algorithm shows the good performance, the semi-joint block diagonalization method is proposed for backhaul constraints. We also propose its enhanced algorithm when there is asynchronous interference to interfere with non-ideal factors, to achieve better system performance.
When combining the Distributed Antenna Systems with Orthogonal Frequency Division Multiple Acces, the joint resource allocation becomes an important issue. For this part, firstly the problem is formulated to maximize the system spectral efficienc and solved by the Lagrange dual decomposition. In the dual domain, the problem is solved by analytical geometry. Then, the power efficiency is modeled and analyzed. A Proportional Power Allocation method is proposed. When applying this method to the joint problem, it is shown that a considerable part of power can be saved, only with a small loss in spectral efficiency.
For a better understanding of Picocell Systems, performance evaluation is studied, including different frequency division, cell range expansion, network topologies, and antenna patterns. From the evaluation, the rules can be obtained for system optimization.
A Pico eNB deployment algorithm for the coverage of outdoor hotzone users was presented, to improve the cell edge spectrum efficiency in Picocell Systems. The proposed algorithm joint considers the Pico eNB transmit power, interference, user densities and users' quality of services. Results show that applying the rules can efficiently balance the load between the hotzone and macro region, and improve the cell edge performance.
As for the cell selection in Picocell Systems, traditional cell range expansion only set a fixed offset for each Pico eNB, which is irrational. This thesis designs a specific offset value for each Pico eNB. Its calculation takes the environment into consideration and includes two parts:the interference condition and user densities.The proposed offset can achieve better load balancing with only small loss in average spectral efficiency. The feasibility of its practical deployment is also discussed.
Finally, a comparative analysis of Distributed Antenna and Picocell Systems is made. Based on the existing evaluation methodology of heterogeneous networks, a set of assessment methods are proposed. Practical schemes are designed to approach the system capacity. The results show that in such an interference-limited model, the Distributed Antenna Systems has benefited from the cooperation of antenna ports within a region, thus its performance is superior to Picocell Systems.
The Distributed Antenna and Picocell Systems is the important part in heterogeneous networks, representing the trend of the development and evolution of existing cellular network infrastructure, which also target on the the next-generation cellular mobile communication systems. This thesis carried out research from both theoretical analysis and performance evaluation on the characteristics of both systems. The proposed joint precoding and joint resource allocation strategies for Distributed Antenna Systems, and deployment algorithm and cell selection strategies for Picocell Systems will provide a reference for practical deployment, in order to make them more widely used in the next generation mobile communication system.
在4G的范畴内,传统蜂窝网络架构面临着发展与演进的巨大挑战。数据业务呈现出指数级的增长,并且具有较强的集聚性；高频段通信使得传输距离不断缩短；与骨干网光纤相比,空口接入网的容量受限制约了系统整体容量的提升；信息产业能耗的持续增加,产业对高密度、低功耗节点的需求不断增加；物理层如协作传输等诸多新技术对网络架构的演进也存在着多种需求。在这种背景下,异构部署网络逐渐走进人们的视野,并在4G组网中扮演了重要角色。异构部署网络,是在传统蜂窝宏基站覆盖的基础上,通过增加新的网络节点来保证覆盖、提高系统性能的网络。
论文针对蜂窝网络架构的发展与演进的需求,选取了异构部署中具有代表性的分布式天线与热点覆盖组网两部分内容进行研究。这两种组网方式较为接近,又各具特点。在充分调研国内外研究的基础上,结合两者各自的系统特征,论文针对分布式天线与热点覆盖开展了一系列的无线资源管理策略研究,对其进行了理论分析与系统性能评估。
在分布式天线系统中,各天线端口可以实现预编码联合传输。针对该问题,首先选取若干种主流线性预编码策略,对其在分布式天线系统中的可行性及算法效果进行了评估。接着,鉴于块对角化算法在分布式天线系统下的良好表现,针对回传链路不充分与异步干扰等非理想因素,分别提出了半联合块对角化算法与异步时延下增强块对角化算法,能够有效抵抗非理想因素,实现更好的系统性能。
在分布式天线结合正交频分复用多址技术的系统中,联合资源分配的维度增加。针对该内容,论文首先建立了最大化系统频谱利用率的联合资源分配问题,并通过拉格朗日对偶分解对其进行求解。其中,对偶问题求解使用了空间解析几何法。接着,论文对系统功率效率进行了建模和分析,提出了比例功率分配法。将比例功率分配法应用到联合资源分配中,可以以较小的频谱效率开销,换来可观的功率效率提升。
由于热点覆盖组网涉及到诸多细节,论文对其主要内容进行了性能评估与优化研究,包括不同的频分方案、不同的小区范围扩展、不同的拓扑场景、不同热点基站天线类型等。在评估中也获得了系统优化的准则。
在热点基站的选址问题上,论文首先论证了直观选址存在的缺陷。接着,提出了一种联合考虑热点基站功率、用户密度、干扰环境、用户服务质量要求等因素的选址策略,为热点基站的选址范围提出约束。通过能够联合考虑多种因素,有效的均衡负载,提高小区边缘性能。
在热点覆盖的小区选择方面,针对传统小区范围扩展在各个热点基站上叠加固定偏移量的不合理性,为每个小区设计了独特的接入偏移量。其计算与小区所处位置的干扰环境以及小区当前的用户密度有关。所提偏移量能够以更小的平均频谱效率损失换来更好的负载均衡。论文对其在实际部署中的可行性也做出了讨论。
最后,论文对两种组网方式进行了比较分析。在现有评估异构部署方法的基础上建立了一套新的评估办法,针对分布式天线与单层热点覆盖的理论容量进行了分析讨论,设计了实际可行方案。结果显示,在一个干扰受限的部署环境与评估模型中,分布式天线系统得益于在一个区域内的协作,性能优于热点覆盖网络。
分布式天线系统与热点覆盖组网是异构部署网络中的重要内容,代表了现有蜂窝网络架构发展与演进的趋势,契合了下一代蜂窝移动通信系统的需求目标。论文依据二者各自的系统特征,从理论分析与性能评估两方面展开了研究。论文所提出的分布式天线系统的联合预编码与联合资源分配策略,以及热点覆盖组网的系统优化准则与站址选择、小区选择策略,可以为其实际部署提供借鉴,以期二者在下一代移动通信系统中得到更加广泛的应用。
With the rapid growth of the number of mobile users, and the continuous development of the wireless communication technologies in network bandwidth, hardware configurations and software applications, the need for massive multi-media data services is facing an explosion. The future demands from mobile users for ubiquitous communication and higher quality of service can not be satisfied by current system performance. In the beginning of2012, the number of global mobile user has exceeded six billion. Meanwhile, the International Telecommunication Union has formally adopted the LTE-Advanced and802.16m technical specifications as the international standards of IMT-Advanced. Commercial road in the cellular mobile communication system has come to the beyond-3rd Generation era, and gradually move towards the4th Generation era.
In the context of4G, the development and evolution of traditional cellular network architecture is facing great challenges. Data services are showing exponential growth and clustered distribution; high frequency band communication shortens the transmission distance; compared to the backbone fiber network, the capacity of radio access network is limited; the energy consumption of the information industry continues to grow, calling for high-density and low-power nodes; physical layer and many other new technologies require the network architecture to be changed. In this context, heterogeneous network is playing a more and more important role in the4G network. By adding new nodes to traditional cellular network, it can improve the system coverage and performance.
This thesis focuses on the requirements of development and evolution of cellular network architectures and selects two representative heterogeneous deployments as the main study items, which are Distributed Antenna and Picocell Systems. They are similar but also with key different characteristics. Based on the investigation of the domestic and international research, and considering the main features of the two systems, a series of radio resource management strategies for Distributed Antenna and Picocell Systems are proposed and related system evaluations are made.
In Distributed Antenna Systems, precoding based joint transmission can be used by distributed antenna ports. For this topic, firstly the feasibility and performance of a number of linear precoding strategies are evaluated. Since the block diagonalization algorithm shows the good performance, the semi-joint block diagonalization method is proposed for backhaul constraints. We also propose its enhanced algorithm when there is asynchronous interference to interfere with non-ideal factors, to achieve better system performance.
When combining the Distributed Antenna Systems with Orthogonal Frequency Division Multiple Acces, the joint resource allocation becomes an important issue. For this part, firstly the problem is formulated to maximize the system spectral efficienc and solved by the Lagrange dual decomposition. In the dual domain, the problem is solved by analytical geometry. Then, the power efficiency is modeled and analyzed. A Proportional Power Allocation method is proposed. When applying this method to the joint problem, it is shown that a considerable part of power can be saved, only with a small loss in spectral efficiency.
For a better understanding of Picocell Systems, performance evaluation is studied, including different frequency division, cell range expansion, network topologies, and antenna patterns. From the evaluation, the rules can be obtained for system optimization.
A Pico eNB deployment algorithm for the coverage of outdoor hotzone users was presented, to improve the cell edge spectrum efficiency in Picocell Systems. The proposed algorithm joint considers the Pico eNB transmit power, interference, user densities and users' quality of services. Results show that applying the rules can efficiently balance the load between the hotzone and macro region, and improve the cell edge performance.
As for the cell selection in Picocell Systems, traditional cell range expansion only set a fixed offset for each Pico eNB, which is irrational. This thesis designs a specific offset value for each Pico eNB. Its calculation takes the environment into consideration and includes two parts:the interference condition and user densities.The proposed offset can achieve better load balancing with only small loss in average spectral efficiency. The feasibility of its practical deployment is also discussed.
Finally, a comparative analysis of Distributed Antenna and Picocell Systems is made. Based on the existing evaluation methodology of heterogeneous networks, a set of assessment methods are proposed. Practical schemes are designed to approach the system capacity. The results show that in such an interference-limited model, the Distributed Antenna Systems has benefited from the cooperation of antenna ports within a region, thus its performance is superior to Picocell Systems.
The Distributed Antenna and Picocell Systems is the important part in heterogeneous networks, representing the trend of the development and evolution of existing cellular network infrastructure, which also target on the the next-generation cellular mobile communication systems. This thesis carried out research from both theoretical analysis and performance evaluation on the characteristics of both systems. The proposed joint precoding and joint resource allocation strategies for Distributed Antenna Systems, and deployment algorithm and cell selection strategies for Picocell Systems will provide a reference for practical deployment, in order to make them more widely used in the next generation mobile communication system.
引文
[1]ITU, Circular Letter for IMT-Advanced,2007.
[2]ITU-R Report, M.2134, "Requirements related to technical performance for IMT-Advanced radio interface(s)".
[3]S. Parkvall, E. Dalhman, and A. F. et al, "LTE-Advanced-Evolving LTE towards IMT-Advanced," in Proc. IEEE VTC'2008, Nagoya, Japan,2008, pp.1-5.
[4]The Draft IEEE 802.16m System Description Document, IEEE 802.16m-08/003r5, IEEE Report.
[5]IMT-ADV/2:Submission and evaluation process and consensus building. [Online]. Available:http://www.itu.int/oth/R0A06000011/en.
[6]IMT-ADV/9:Acknowledgement of candidate submission from china (People's Republic of) under step 3 of the IMT-Advanced process (3GPP technology). [Online]. Available:http://www.itu.int/md/R07-IMT.ADV-C-0009/en.
[7]Chinese evaluation group. [Online]. Available:http://cheg.ccsa.org.cn/.
[8]Foschini G J, "Layered space-time architecture for wireless communication in a fading environment when using multi-element antennas", Bell Labs Technical Journal,1996, pp.41-59.
[9]Foschini G J, Gans M J, "On limits of wireless communications in a fading environment when using multiple antennas", Wireless Personal Communication, 1998, pp.311-335.
[10]Wolniasky P W, Foschini G J, Golden G D, Valenzuela R, "V-BLAST:an architecture for realizing very high data rates over the rich scattering wireless channel", in Proc. ISSE'98,1998, pp.295-300.
[11]3GPP, TR 25.892, Feasibility Study for Orthogonal Frequency Division Multiplexing (OFDM) for UTRAN enhancement,2004.
[12]Chuang J, Sollenberger N. "Beyond 3G:wideband wireless data access based on OFDM and dynamic packet assignment", IEEE Communications Magazine,2000, 38(7):78-87.
[13]Wong C Y, Cheng R S, Letaief K B, et al. "Multi-user OFDM with adaptive sub-carrier, bit, and power allocation", IEEE Journal on Selected Areas in Communications,1999,17(10):1747-1758.
[14]Yonghui Li, "Distributed coding for cooperative wireless networks:An overview and recent advances", IEEE Communication Magazine, vol.47, issue.08, pp. 71-77,2009.
[15]S. Zhou, "Distributed Wireless Communication System:A New Architecture for Future Public Wireless Access", IEEE Commun Magazine, vol.41, no.3, pp.108-113,2003.
[16]3GPP Tech. Rep. TR 36.814 v9.0.0, "Further advancements for E-UTRA physical layer aspects", Mar.2010.
[17]Bell Lab. High-Capacity Mobile Telephone System Technical Report, December 1971.
[18]张明,张建华,姜磊,张平.3.5GHz宽带信道测量和相关参数分析,北京邮电大学学报,第28卷,第5期,2005年5月,pp.80-84.
[19]Zhao Xiongwen, Kivinen J, Vainikainen P, Skog K. Propagation characteristics for wideband outdoor mobile communications at 5.3 GHz, IEEE Journal on Selected Areas in Communications, Vol.20, Issue.3,2002, pp.507-514.
[20]D. Mavrakis and M. Kamal-Saadi, "Mobile Broadband Access at Home:The Business Case for Femtocells, UMA and IMS/VCC Dual Mode Solutions", Informa Telecoms and Media, Sep.2008.
[21]S. Carlaw, "IPR and the Potential Effect on Femtocell Markets", FemtoCells Europe, London, UK, Jun.2008.
[22]G. Mansfield, "Femtocells in the US Market-Business Drivers and Consumer Propositions," FemtoCells Europe, ATT, London, U.K., June 2008.
[23]Pabst R, Walke B H, et al. "Relay-based deployment concepts for wireless and mobile broadband radio," IEEE Communications Magazine, Vol.42, pp.80-89, 2004.
[24]J. N. Laneman, D. N. C. Tse, and G. W. Wornell, "Cooperative diversity in wireless networks:Efficient protocols and outage behavior", IEEE Transactions on Information Theory, vol.50, pp.3062-3080,2004.
[25]K. Azarian, H. E. Gamal, and P. Schniter, "On the achievable diversity-multiplexing tradeoff in half-duplex cooperative channels", IEEE Transactions on Information Theory, vol.51, pp.4152-4172,2005.
[26]David Tse, Multiuser Diversity in Wireless Networks:Smart Scheduling, Dumb Antennas and Epidemic Communication, IMA Wireless Workshop, August 10th, 2001.
[27]Liang Xiao, Lin Dai, Hairuo Zhuang, Shidong Zhou and Yan Yao, "Information-theoretic capacity analysis in MIMO distributed antenna systems", Proc. IEEE Veh. Technology Conf., pp.779-782, Apr.2003.
[28]Wonil Roh, Arogyaswami Paulraj, "MIMO channel capacity for the distributed antenna", VTC 2002-Fall, vol.2,2002, pp.706-709.
[29]Wan Choi, Jeffrey G. Andrews, "Downlink performance and capacity of distributed antenna systems in a multicell environment", IEEE Transactions on Wireless Communications, vol.6, no.1, Jan 2007.
[30]X. Yu, X. Liu, Y. Xin, M. Chen and Y. Rui, "Capacity Analysis of Distributed Antenna Systems with Multiple Receive Antennas over MIMO Fading Channel," International Journal of Antennas and Propagation, Jan.2012, ID 409254.
[31]Jiansong Gan, Yunzhou Li, Shidong Zhou, and Jing Wang "Adaptive Transmit-Receive Mode Selection for Multi-User Distributed Wireless Communication System", proceedings of IEEE WCNC 2007.
[32]Honglin Hu, Martin Weckerle, Jijun Luo "Adaptive transmission mode selection scheme for distributed wireless communication systems", IEEE Communications Letters, vol.10, no.7, July 2006.
[33]H. Kim, S. Lee, K. Lee and I. Lee, "Transmission Schemes Based on Sum Rate Analysis in Distributed Antenna Systems," Wireless Communications, IEEE Transactions on, vol.11, issue 3,2012, pp:1201-1209.
[34]W. Feng, Y. Li, J. Gan, S. Zhou, J. Wang and M. Xia, "On the Deployment.of Antenna Elements in Generalized Multi-User Distributed Antenna Systems", Mobile Networks and Applications, vol.16, no.1,2011, pp:35-45.
[35]S. Shamai (Shitz), O. Somekh, and B. M. Zaidel, "Multi-cell communications:an information theoretic perspective," in Proc. Joint Workshop on Communications and Coding (JWCC), Florence, Italy, Oct.2004.
[36]S. Shamai (Shitz) and B. M. Zaidel, "Enhancing the cellular downlink capacity via co-processing at the transmitting end," in Proc. IEEE Veh. Technol. Conf., Rhodes, Greece, May 2001, pp.1745-1749.
[37]H. Zhang and H. Dai, "Cochannel interference mitigation and cooperative processing in downlink multi-cell multi-user MIMO networks," European J. Wireless Commun. and Networking, no.2, pp.222-235,4th Quarter 2004.
[38]K. Karakayali, G. J. Foschini, R. A. Valenzuela, and R. Yates, "On the maximum common rate achievable in a coordinated network," in Proc. IEEE Int. Conf. Commun., Istanbul, Turkey, June 2006, pp.4333-4338.
[39]J. Zhang, R. Chen, J. G. Andrews, A. Ghosh, and R. W. Heath, Jr., "Networked MIMO with Clustered Linear Precoding", IEEE Trans. Wireless Commun., vol.8, no.4, April 2009.
[40]T. K. Akino, A. Molisch, C. Duan, Z. Tao, P. Orlik, "Capacity, MSE and secrecy analysis of linear block precoding for distributed antenna systems in multi-user frequency-selective fading channels", IEEE Trans. Commun.,2011, vol.59, issue 3,888-900.
[41]Song Xinghua, He Zhiqiang, Niu Kai, Wu Weiling, "A Hierarchical Resource Allocation for OFDMA Distributed Wireless Communication Systems", Proc. IEEE GLOBECOM 2007.
[42]D. Lee, V. Leung, "Fair Allocation of Sub-carrier and Power in an OFDMA Wireless Mesh Network," IEEE J. Select. Areas Commun., Vol.24, Issue.11, pp. 2051-2060, Nov.2006.
[43]N. Dawod, I. Marsland, R. Hafez, "Improved transmit steering for MIMO-OFDM downlinks with distributed base station antenna arrays", IEEE J. Sel. Areas Commun. vol.24, no.3,419-426,2006.
[44]J. Kenneth, "Interference Alignment with Distributed Antenna Systems", Master's thesis, University of Texas at Austin, Feb.2012.
[45]Attar A., H. Li, Leung V.C.M., "Green last mile:how fiber-connected massively distributed antenna systems can save energy", Wireless Communications, IEEE, Oct.2011, vol.18, Issue 5, pp:66-74.
[46]J. Wang, H. Zhu and Gomes, N.J, "Distributed Antenna Systems for Mobile Communications in High Speed Trains", Selected Areas in Communications, IEEE Journal on,2012, vol.30, issue 4, pp:675-683.
[47]Sigen Ye, Rick S. Blum, Leonard J. Cimini, Jr., "Adaptive OFDM systems with imperfect channel state information", IEEE Transactions on Wireless Communications, vol.5, no.11, Nov.2006.
[48]S. Huang, H. Li, J. Wu, Leung V.C.M., "A Reliable Group-Simulcasting Scheme for Distributed Antenna Systems", Wireless Communications, IEEE Transactions on, Jan.2012, vol.11, issue 1, pp:236-245.
[49]Feng Jiang, Ying Wang, Xi Fang, Kai Sun, Guona Hu, Ping Zhang, "Cross-Layer Design for the MIMO System with Zero-Forcing Receiver in the Presence of Channel Estimation Error," accepted in IEEE ICC 2008.
[50]Grieger M., Helbing P., Fettweis G. and Marsch P., "Field trial evaluation of compression algorithms for distributed antenna systems," Sarnoff Symposium, 2011,34th IEEE, May 2011.
[51]Guona Hu, Feng Jiang, Ying Wang, Yongtai Xu, and Ping Zhang, "On the Performance of a Multi-user Multi-antenna System with Transmit Zero-forcing Beamforming and Feedback Delay," accepted in IEEE WCNC 2008.
[52]Cao Peng, Kang Guixia, Zhang Ningbo, Zhang Ping, "A modified precoding scheme for MIMO downlink channel with imperfect CSIT",2008 11 th IEEE Singapore International Conference on Communication Systems, ICCS 2008.
[53]Performance evaluation of distributed multi-cell beamforming for MU-MIMO systems Wireless Communication Systems (ISWCS),2011 8th International Symposium on, Nov.2011, pp:547-551.
[54]Osvaldo Simeone, Oren Somekh, H. Vincent Poor and Shlomo Shamai (Shitz), "Local Base Station Cooperation via Finite-Capacity Links for the Uplink of Linear Cellular Networks", IEEE Trans. Inform. Theory, vol.55, no.1, Jan.2009.
[55]W. Feng, Y. Wang, M. Zhao, S. Zhou and J. Wang, "Practical power allocation for clustered distributed antenna systems in the low SNR regime", International Journal of Electronics and Communications, vol.65, issue 6, June 2011, pp:595-598.
[56]S. Bavarian and J. K. Cavers, "Reduced complexity distributed base station processing in the uplink of cellular networks," in Proc. IEEE Global Telecommun. Conf. (GLOBECOM 2006), Washington, DC, Nov.2007, pp.4500-4504.
[57]T. Mayer, H. Jenkac, and J. Hagenauer, "Turbo base-station cooperation for inter-cell interference cancellation," in Proc. IEEE Int. Conf. Communications (ICC 2006), Istanbul, Turkey, Jun.2006, vol.11, pp.4977-4982.
[58]O. Somekh, B. Zaidel, and S. Shamai (Shitz), "Sum rate characterization of joint multiple cell-site processing," IEEE Trans. Inf. Theory, vol.53, no.12, pp. 4473-4497, Dec.2007.
[59]A. Sanderovich, O. Somekh, and S. Shamai (Shitz), "Uplink macro-diversity with limited backhaul capacity," in Proc. IEEE Int. Symp. Information Theory (ISIT 2007), Nice, France, Jun.2007, pp.11-15.
[60]L. Zhong, Y. Ji, K. Yang, "Energy-Efficient Resource Allocation in Mobile Networks with Distributed Antenna Transmission," Mobile Networks and Applications, vol.17, issue 1, Feb.2012.
[61]S. Shamai (Shitz), O. Simeone, O. Somekh, and H. V. Poor, "Joint multi-cell processing for downlink with limited-capacity backhaul," in Proc. Information Theory and Applications Workshop, San Diego, CA, Jan./Feb.2008.
[62]H. Zhang, N. B. Mehta, A. F. Molisch, J. Zhang, and H. Dai, "Asynchronous interference mitigation in cooperative base station systems," IEEE Trans. Wireless Commun., vol.7, no.1, pp.155-165, Jan.2008.
[63]Q. H. Spencer, A. L. Swindlehurst, and M. Haardt, "Zero-forcing methods for downlink spatial multiplexing in multi-user MIMO channels," IEEE Trans. Signal Processing, vol.52, pp.461-471, Feb.2004.
[64]L. U. Choi and R. D. Murch, "A transmit preprocessing technique for multi-user MIMO systems using a decomposition approach," IEEE Trans. Wireless Commun., vol.3, no.1, pp.20-24, Jan.2004.
[65]L. Ling, T. Wang, Y. Wang, C. Shi, Schemes of power allocation and antenna port selection in OFDM distributed antenna systems, in IEEE 72nd Vehicular Technology Conference Fall,2010, pp.1-5.
[66]P. Gong, K. Yu, Y. Wang, "Radio resource allocation for multiuser OFDMA distributed antenna systems", in IEEE International Conference on Network Infrastructure and Digital Content,2009. IC-NIDC,2009, pp.912-916.
[67]W. Chen, C. Zhu and T. Naito, "Enhanced OFDM Distributed Antenna Systems through Power Redistribution", Wired/Wireless Internet Communications,2011, vol.6649/2011, pp:259-271.
[68]W. Yu, T. Lan, "Transmitter optimization for the multi-antenna downlink with per-antenna power constraints", IEEE Trans. Signal Process. vol.55, no.6,2646- 2660,2007.
[69]G. Miao, N. Himayat, Y. Li, D. Bormann, "Energy effcient design in wireless OFDMA", in IEEE International Conference on Communications,2008. ICC'08, 2008, pp.3307-3312.
[70]B. Badic, T. O'Farrrell, P. Loskot, J. He, "Energy effcient radio access architectures for green radio:large versus small cell size deployment", in IEEE 70th Vehicular Technology Conference Fall,2009, pp.1-5.
[71]F. Richter, A. Fehske, G. Fettweis, "Energy effciency aspects of base station deployment strategies for cellular networks", in IEEE 70th Vehicular Technology Conference Fall,2009, pp.1-5.
[72]M. S. Alouini and A. Goldsmith, "Area Spectral Efficiency of Cellular Mobile Radio Systems", IEEE Trans. on Vehicular Tech., vol.48, no.4, pp.1047-1066, 1999.
[73]D. L. Perez, A. Valcarce, G. D. L. Roche, E. Liu, and J. Zhang, "Access methods to WiMAX femtocells:A downlink system-level case study," Proc. IEEE Int. Conf. Commun. Syst. (ICCS), Guangzhou, China, Nov.2008, pp.1657-1662.
[74]Tan Wang, et al., "A Pico-eNodeB Deployment Algorithm for the Coverage of Outdoor Hotzone Users", Proc. WMC 2011.
[75]Guvenc, I., "Capacity and Fairness Analysis of Heterogeneous Networks with Range Expansion and Interference Coordination", Communications Letters, IEEE, vol.15, issue 10, pp:1084-1087,2011.
[76]H. Li, Hajipour, J., Attar, A., Leung, V.C.M, "Efficient HetNet implementation using broadband wireless access with fiber-connected massively distributed antennas architecture", Wireless Communications, IEEE, vol.18, issue 3, pp: 72-78,2011.
[77]胡春静,段洪涛,王文博,"OFDMA系统家庭基站的上行容量模型和性能分析”,北京邮电大学学报,2011,34(1)75-79.
[78]D. Amzallag et al., "Cell selection in 4G cellular networks", in Proc. IEEE Infocom 2008, pp.700-708, Apr.2008.
[79]J. Moon, and D. Cho, "Efficient Cell Selection Algorithm in Hierarchical Cellular Networks:Multi-User Coordination", IEEE Commun. Letters, vol.14, no.2, Feb. 2010.
[80]H. Lee, D. Oh, and Y. Lee, "Mitigation of Inter-Femtocell Interference with Adaptive Fractional Frequency Reuse", in Proc. IEEE ICC 2010, May 2010.
[81]R1-102775, Increasing footprint of low power nodes for improved performance, 3GPP TSG-RAN WG1#61,2010.
[82]R1-102976, Performance and interference aspects of macro with outdoor pico hotspot,3GPP TSG RAN WG1#61 Meeting,2010.
[83]R1-103125, Evaluation of Rel-8/9 techniques and range expansion for macro and outdoor hotzone,3GPP TSG RAN WG1 meeting #61,2010.
[84]Rl-103160, System Performance of HetNet with Pico eNB,3GPP TSG RAN1#61,2010.
[85]Landstrom, S. and Murai, H. and Simonsson, A., "Deployment Aspects of LTE Pico Nodes", Communications Workshops (ICC),2011 IEEE International Conference on.
[1]S. Huang, H. Li, J. Wu, Leung V.C.M., "A Reliable Group-Simulcasting Scheme for Distributed Antenna Systems", Wireless Communications, IEEE Transactions on, Jan.2012, vol.11, issue 1, pp:236-245.
[2]G. Caire and S. Shamai (Shitz), "On the achievable throughput of a multi-antenna Gaussian broadcast channel," IEEE Trans. Inform. Theory, vol.49, no.7, pp. 1691-1706,July 2003.
[3]S. Vishwanath, N. Jindal, and A. Goldsmith, "Duality, achievable rates, and sum-rate capacity of MIMO broadcast channels," IEEE Trans. Inform. Theory, vol.49, no.10, pp.2658-2668, Oct.2003.
[4]P. Viswanath and D. N. C. Tse, "Sum capacity of the vector Gaussian broadcast channel and uplink-downlink duality," IEEE Trans. Inform. Theory, vol.49, no.8, pp.1912-1921, Aug.2003.
[5]W. Yu and J. Cioffi, "The sum capacity of a Gaussian vector broadcast channel," IEEE Trans. Inform. Theory, vol.50, no.9, pp.1875-1892, Sept.2004.
[6]H. Weingarten, Y. Steinberg, and S. Shamai, "The capacity region of the Gaussian multiple-input multiple-output broadcast channel," IEEE Trans. Inform. Theory, vol.52, no.9, pp.3936-3964, Sept.2006.
[7]L. U. Choi and R. D. Murch, "A transmit preprocessing technique for multi-user MIMO systems using a decomposition approach," IEEE Trans. Wireless Commun., vol.3, no.1, pp.20-24, Jan.2004.
[8]Q. H. Spencer, A. L. Swindlehurst, and M. Haardt, "Zero-forcing methods for downlink spatial multiplexing in multi-user MIMO channels," IEEE Trans. Signal Processing, vol.52, pp.461-471, Feb.2004.
[9]Z. Pan, K. K. Wong, and T. S. Ng, "Generalized multi-user orthogonal space-division multiplexing," IEEE Trans. Wireless Commun.,vol.3, no.6, pp. 1969-1973, Nov.2004.
[10]R. Chen, J. G. Andrews, and R. W. Heath, Jr., "Multi-user space-time block coded MIMO system with downlink precoding," in Proc. IEEE Int. Conf. Commun., vol. 5, Paris, France, June 2004, pp.2689-2693.
[11]S. Shim, J. S. Kwak, R. W. Heath, Jr., and J. G. Andrews, "Block diagonalization for multi-user MIMO with other-cell interference," IEEE Trans. Wireless Commun., vol.7, no.7, pp.2671-2681, July 2008.
[12]Z. Shen, R. Chen, J. G. Andrews, R. W. Heath, Jr., and B. L. Evans, "Sum capacity of multiuser MIMO broadcast channels with block diagonalization," IEEE Trans. Wireless Commun., vol.6, no.6, pp.2040-2045, June 2007.
[13]H. Zhang and H. Dai, "Cochannel interference mitigation and cooperative processing in downlink multi-cell multi-user MIMO networks," European J. Wireless Commun. and Networking, no.2, pp.222-235,4th Quarter 2004.
[14]B. L. Ng, J. S. Evans, S. V. Hanly, and D. Aktas, "Transmit beamforming with cooperative base stations," in Proc. IEEE Intl. Symp. Inf. Theory,2005, pp. 1431-1435.
[15]Grieger M., Helbing P., Fettweis G. and Marsch P., "Field trial evaluation of compression algorithms for distributed antenna systems," Sarnoff Symposium, 2011,34th IEEE, May 2011.
[16]A. Tarighat, M. Sadek, A.H. Sayed. a multiuser beamforming scheme for downlink MIMO channels based on maximizing signal-to-leakage ratios. IEEE International Conference on Speech and Signal Processing. Vol 3.2005: 1129-1132.
[17]Wang J., L.B. Milstein, "CDMA overlay situations for microcellular mobile communications," IEEE Transactions on Communications, vol.43, no.2/3/4, pp. 603-614, Feb/March/April 1995.
[18]Wang, J., Chen, J., "Performance of wideband CDMA system with complex spreading and imperfect channel estimation," IEEE Journal on Selected Areas in Communications, Vol.19, No.1, pp.152-163, Jan.2001.
[19]H. Zhang, N. B. Mehta, A. F. Molisch, J. Zhang, and H. Dai, "Asynchronous interference mitigation in cooperative base station systems," IEEE Trans. Wireless Commun., vol.7, no.1, pp.155-165, Jan.2008.
[20]Zheng Pinlian, Xie Xianzhong, Qu Gang. Suppressed inter-cell asynchronous interference by delay-tolerance SLNR precoding. In The 12th International Conference on Advanced Communication Technology (ICACT). Vol 1.2010: 627-632.
[21]Y. Liang, Goldsmith, A., "Adaptive Channel Reuse in Cellular Systems", Communications,2007. ICC'07. IEEE International Conference on, pp:857-862.
[22]J. Gan, Y. Li, S. Zhou and J. Wang "Adaptive Transmit-Receive Mode Selection for Multi-User Distributed Wireless Communication System", proceedings of IEEE WCNC 2007.
[23]3GPP Tech. Rep. TR 36.814 v9.0.0, "Further advancements for E-UTRA physical layer aspects", Mar.2010.
[1]J. Zhang, R. Chen, J. G. Andrews, A. Ghosh, and R. W. Heath, Jr., "Networked MIMO with Clustered Linear Precoding", IEEE Trans. Wireless Commun., vol.8, no.4, April 2009.
[2]T. K. Akino, A. Molisch, C. Duan, Z. Tao, P. Orlik, "Capacity, MSE and secrecy analysis of linear block precoding for distributed antenna systems in multi-user frequency-selective fading channels", IEEE Trans. Commun.59 (3),888-900, 2011.
[3]W. Feng, Y. Wang, M. Zhao, S. Zhou and J. Wang, "Practical power allocation for clustered distributed antenna systems in the low SNR regime", International Journal of Electronics and Communications, vol.65, issue 6, June 2011, pp:595-598.
[4]Song Xinghua, He Zhiqiang, Niu Kai, Wu Weiling, "A Hierarchical Resource Allocation for OFDMA Distributed Wireless Communication Systems", Proc. IEEE GLOBECOM 2007.
[5]D. Lee, V. Leung, "Fair Allocation of Sub-carrier and Power in an OFDMA Wireless Mesh Network," IEEE J. Select. Areas Commun., Vol.24, Issue.11, pp. 2051-2060, Nov.2006.
[6]N. Dawod, I. Marsland, R. Hafez, "Improved transmit steering for MIMO-OFDM downlinks with distributed base station antenna arrays", IEEE J. Sel. Areas Commun. vol.24, no.3,419-426,2006.
[7]L. Ling, T. Wang, Y. Wang, C. Shi, "Schemes of power allocation and antenna port selection in OFDM distributed antenna systems", in IEEE 72nd Vehicular Technology Conference Fall,2010, pp.1-5.
[8]P. Gong, K. Yu, Y. Wang, "Radio resource allocation for multiuser OFDMA distributed antenna systems", in IEEE International Conference on Network Infrastructure and Digital Content,2009. IC-NIDC,2009, pp.912-916.
[9]W. Chen, C. Zhu and T. Naito, "Enhanced OFDM Distributed Antenna Systems through Power Redistribution", Wired/Wireless Internet Communications,2011, vol.6649/2011, pp:259-271.
[10]E Oh, B Krishnamachari, X Liu, Z Niu, "Towards dynamic energy-effcient operation of cellular network infrastructure", IEEE Commun. Mag.2010.
[11]F. Meshkati, H. Poor, S. Schwartz, N. Mandayam, "An energy-effcient approach to power control and receiver design in wireless data networks", IEEE Trans. Commun. vol.53, no.11,1885-1894,2005.
[12]W. Yu, T. Lan, "Transmitter optimization for the multi-antenna downlink with per-antenna power constraints", IEEE Trans. Signal Process, vol.55, no.6,2646-2660,2007.
[13]G. Miao, N. Himayat, Y. Li, D. Bormann, "Energy effcient design in wireless OFDMA", in IEEE International Conference on Communications,2008. ICC'08, 2008, pp.3307-3312.
[14]B. Badic, T. O'Farrrell, P. Loskot, J. He, "Energy effcient radio access architectures for green radio:large versus small cell size deployment", in IEEE 70th Vehicular Technology Conference Fall,2009, pp.1-5.
[15]F. Richter, A. Fehske, G. Fettweis, "Energy effciency aspects of base station deployment strategies for cellular networks", in IEEE 70th Vehicular Technology Conference Fall,2009, pp.1-5.
[16]L. Zhong, Y. Ji, K. Yang, "Energy-Efficient Resource Allocation in Mobile Networks with Distributed Antenna Transmission," Mobile Networks and Applications, vol.17, issue 1, Feb.2012.
[17]Attar A., H. Li, Leung V.C.M. "Green last mile:how fiber-connected massively distributed antenna systems can save energy", Wireless Communications, IEEE, Oct.2011, vol.18, Issue 5, pp:66-74.
[18]Wan Choi, Jeffrey G. Andrews, "Downlink performance and capacity of distributed antenna systems in a multicell environment", IEEE Transactions on Wireless Communications, vol.6, no.1, Jan 2007.
[19]W. Yu, R. Lui, "Dual methods for nonconvex spectrum optimization of multicarrier systems", IEEE Trans. Commun. vol.54, no.7,1310-1322,2006.
[20]S Boyd, L Vandenberghe, Convex optimization, Cambridge University Press, Cambridge,2004.
[21]Y. Chen, S. Zhang, S. Xu, Li G.Y., "Fundamental trade-offs on green wireless networks," Communications Magazine, IEEE, June 2011, vol.49, issue 6, pp:30-37.
[1]3GPP Tech. Rep. TR 36.814 v9.0.0, "Further advancements for E-UTRA physical layer aspects", Mar.2010.
[2]R1-102775, Increasing footprint of low power nodes for improved performance, 3GPP TSG-RAN WG1 #61,2011.
[3]R1-102976, Performance and interference aspects of macro with outdoor pico hotspot,3GPP TSG RAN WG1 #61,2011.
[4]R1-103125, Evaluation of Rel-8/9 techniques and range expansion for macro and outdoor hotzone,3GPP TSG RAN WG1 meeting #61,2011.
[5]R1-103160, System Performance of HetNet with Pico eNB,3GPP TSG RAN1#61,2011.
[6]R1-102676, DL Interference Mitigation via Direction Information in Het-Net, 3GPP TSG RAN WG1 meeting #61,2011.
[7]R1-102670, Identification of Co-channel Problems with Het-Net Deployments, 3GPP TSG RAN WG1 meeting #61,2011.
[8]R1-102974, HetNet interference management needs and candidate solutions, 3GPP TSG RAN WG1#61,2011.
[9]Qualcomm Europe, R1-083813, "Range expansion for efficient support of heterogeneous networks",3GPP TSG RAN WG1 #54bis, Prague, Sep.,2008.
[10]Huawei, R1-101083, "Cell association analysis in outdoor Hotzone of hetero-geneous networks",3GPP TSG RAN WG1#60, San Francisco, USA, Feb.,2010.
[11]Ericsson, ST-Ericsson, R1-101752, "Considerations on non-CA based hetero-geneous deployments",3GPP TSG RAN WG1 #60bis, Beijing, China, April, 2010.
[12]Foschini, G.J., Karakayali, K, Valenzuela, R.A., "Coordinating multiple antenna cellular networks to achieve enormous spectral efficiency", Communications, IEE Proceedings, vol.153, issue 4, pp:548-555,2006.
[13]Yifan Liang, Andrea Goldsmith, Gerard Foschini, Reinaldo Valenzuela and Dmitry Chizhik, "Evolution of Base Stations in Cellular Networks:Denser Deployment versus Coordination", IEEE ICC 2008.
[14]3GPP TS 25.814, Physical layer aspects for evolved Universal Terrestrial Radio Access (UTRA).
[1]Tan Wang, et al., "A Pico-eNodeB Deployment Algorithm for the Coverage of Outdoor Hotzone Users", Proc. WMC 2011.
[2]Guvenc, I., "Capacity and Fairness Analysis of Heterogeneous Networks with Range Expansion and Interference Coordination", Communications Letters, IEEE, vol.15, issue 10, pp:1084-1087,2011.
[3]H. Li, Hajipour, J., Attar, A., Leung, V.C.M, "Efficient HetNet implementation using broadband wireless access with fiber-connected massively distributed antennas architecture", Wireless Communications, IEEE, vol.18, issue 3, pp: 72-78,2011.
[4]R. Wang, Y. Du, "Het-Net Throughput Analysis with Picocell Interference Cancellation," Communications Workshops (ICC),2011 IEEE International Conference on, pp.1-6, June 2011.
[5]Saker L., Elayoubi S.E., Rong L., Chahed T., "Capacity and Energy Efficiency of Picocell Deployment in LTE-A Networks", Vehicular Technology Conference (VTC Spring), pp.1-6, May 2011.
[6]Lopez-Perez D., Chu X., Guvenc I., "On the Expanded Region of Picocells in Heterogeneous Networks", Selected Topics in Signal Processing, IEEE Journal of, vol. PP, issue 99, Mar.2012.
[7]Guvenc I., M. Jeong, Demirdogen I., Kecicioglu B and Watanabe F., "Range Expansion and Inter-Cell Interference Coordination for Picocell Networks", Vehicular Technology Conference (VTC Fall), Sept.2011.
[8]D. Amzallag et al., "Cell selection in 4G cellular networks", in Proc. IEEE Infocom 2008, pp.700-708, Apr.2008.
[9]J. Moon, and D. Cho, "Efficient Cell Selection Algorithm in Hierarchical Cellular Networks:Multi-User Coordination", IEEE Commun. Letters, vol.14, no.2, Feb. 2010.
[10]H. Lee, D. Oh, and Y. Lee, "Mitigation of Inter-Femtocell Interference with Adaptive Fractional Frequency Reuse", in Proc. IEEE ICC 2010, May 2010.
[11]I. Maric, B. Bostjancic, A. Goldsmith, "Resource Allocation for Constrained Backhaul in Picocell Networks", Information Theory and Applications Workshop (ITA), Feb.2011.
[12]3GPP Tech. Rep. TR 36.814 v9.0.0, "Further advancements for E-UTRA physical layer aspects", Mar.2010.
[13]Landstrom, S. and Murai, H. and Simonsson, A., "Deployment Aspects of LTE Pico Nodes", Communications Workshops (ICC),2011 IEEE International Conference on.
[14]S. G. Kiani, G. E. Oien, and D. Gesbert, "Maximizing Multicell Capacity Using Distributed Power Allocation and Scheduling", in Proc. IEEE WCNC 2007, Mar. 2007.
[15]H. Lee, D. Oh, and Y. Lee, "Mitigation of Inter-Femtocell Interference with Adaptive Fractional Frequency Reuse", in Proc. IEEE ICC 2010, May 2010.
[16]Qualcomm Europe, Rl-083813, "Range expansion for efficient support of heterogeneous networks",3GPP TSG RAN WG1#54bis, Prague, Sep.,2008.
[17]Huawei, R1-101083, "Cell association analysis in outdoor Hotzone of hetero-geneous networks",3GPP TSG RAN WG1 #60, San Francisco, USA, Feb.,2010.
[18]Ericsson, ST-Ericsson, R1-101752, "Considerations on non-CA based hetero-geneous deployments",3GPP TSG RAN WG1#60bis, Beijing, China, April, 2010.
[1]Tan Wang, Wang Ying, Sun Kai, Zhang Ping, "On the Performance of Downlink Transmission for Distributed Antenna Systems with Multi-Antenna Arrays", Proc. IEEE VTC 2009-fall.
[2]Tan Wang, Wang Ying, Shi Cong, Zhang Ping, "Joint Resource Allocations for Remote Radio Head Deployments with Coherent Transmitter", EURASIP Journal on Wireless Communications and Networking 2012,2012:111.
[3]Tan Wang, Wang Ying, Zhang Ping, "Resource Allocation in Downlink OFDM A Distributed Multipoint Systems with Incoherent and Coherent Transmitters", Journal of China University of Posts and Telecom,2011.
[4]Tan Wang, Wang Ying, "Joint Resource Allocations in Distributed Antenna Systems with Coherent Transmitter", Globecom Workshop on Distributed Antenna Systems for Broadband Mobile Communications,2011.
[5]Lisha Ling, Tan Wang, et al, "Schemes of Power Allocation and Antenna Port Selection in OFDM Distributed Antenna Systems", Proc. IEEE VTC 2010-fall.
[6]Tan Wang, et al., "A Pico-eNodeB Deployment Algorithm for the Coverage of Outdoor Hotzone Users", Proc. WMC 2011.
[7]Foschini, G.J., Karakayali, K, Valenzuela, R.A., "Coordinating multiple antenna cellular networks to achieve enormous spectral efficiency", Communications, IEE Proceedings, vol.153, issue 4, pp:548-555,2006.
[8]Yifan Liang, Andrea Goldsmith, Gerard Foschini, Reinaldo Valenzuela and Dmitry Chizhik, "Evolution of Base Stations in Cellular Networks:Denser Deployment versus Coordination", IEEE ICC 2008.
[9]3GPP Tech. Rep. TR 36.814 v9.0.0, "Further advancements for E-UTRA physical layer aspects", Mar.2010.
[10]Ying, Wang, Huiling Dai, Tan Wang, et al, "An Improved Block Diagonalization Algorithm under Asynchronous Interference Condition" accepted by IET communications.2011.
[11]A. Bedekar, S. Borst, K. Ramanan, P. Whiting, and E. Yeh, "Downlink scheduling in CDMA data networks," in Proc. IEEE Globecom,Riode Janeiro,1999, pp. 2653-2657.
[12]A. Gjendemsj(?), D. Gesbert, G. E.(?)ien, and S. G. Kiani, "Optimal power allocation and scheduling for two-cell capacity maximization," in Proc. RAWNET (WiOpt), Boston, Apr.2006.
[13]S. G. Kiani and D. Gesbert, "Maximizing the capacity of large wireless networks: Optimal and distributed solutions," in Proc. IEEE ISIT, Seattle, USA, July 2006.
[2]ITU-R Report, M.2134, "Requirements related to technical performance for IMT-Advanced radio interface(s)".
[3]S. Parkvall, E. Dalhman, and A. F. et al, "LTE-Advanced-Evolving LTE towards IMT-Advanced," in Proc. IEEE VTC'2008, Nagoya, Japan,2008, pp.1-5.
[4]The Draft IEEE 802.16m System Description Document, IEEE 802.16m-08/003r5, IEEE Report.
[5]IMT-ADV/2:Submission and evaluation process and consensus building. [Online]. Available:http://www.itu.int/oth/R0A06000011/en.
[6]IMT-ADV/9:Acknowledgement of candidate submission from china (People's Republic of) under step 3 of the IMT-Advanced process (3GPP technology). [Online]. Available:http://www.itu.int/md/R07-IMT.ADV-C-0009/en.
[7]Chinese evaluation group. [Online]. Available:http://cheg.ccsa.org.cn/.
[8]Foschini G J, "Layered space-time architecture for wireless communication in a fading environment when using multi-element antennas", Bell Labs Technical Journal,1996, pp.41-59.
[9]Foschini G J, Gans M J, "On limits of wireless communications in a fading environment when using multiple antennas", Wireless Personal Communication, 1998, pp.311-335.
[10]Wolniasky P W, Foschini G J, Golden G D, Valenzuela R, "V-BLAST:an architecture for realizing very high data rates over the rich scattering wireless channel", in Proc. ISSE'98,1998, pp.295-300.
[11]3GPP, TR 25.892, Feasibility Study for Orthogonal Frequency Division Multiplexing (OFDM) for UTRAN enhancement,2004.
[12]Chuang J, Sollenberger N. "Beyond 3G:wideband wireless data access based on OFDM and dynamic packet assignment", IEEE Communications Magazine,2000, 38(7):78-87.
[13]Wong C Y, Cheng R S, Letaief K B, et al. "Multi-user OFDM with adaptive sub-carrier, bit, and power allocation", IEEE Journal on Selected Areas in Communications,1999,17(10):1747-1758.
[14]Yonghui Li, "Distributed coding for cooperative wireless networks:An overview and recent advances", IEEE Communication Magazine, vol.47, issue.08, pp. 71-77,2009.
[15]S. Zhou, "Distributed Wireless Communication System:A New Architecture for Future Public Wireless Access", IEEE Commun Magazine, vol.41, no.3, pp.108-113,2003.
[16]3GPP Tech. Rep. TR 36.814 v9.0.0, "Further advancements for E-UTRA physical layer aspects", Mar.2010.
[17]Bell Lab. High-Capacity Mobile Telephone System Technical Report, December 1971.
[18]张明,张建华,姜磊,张平.3.5GHz宽带信道测量和相关参数分析,北京邮电大学学报,第28卷,第5期,2005年5月,pp.80-84.
[19]Zhao Xiongwen, Kivinen J, Vainikainen P, Skog K. Propagation characteristics for wideband outdoor mobile communications at 5.3 GHz, IEEE Journal on Selected Areas in Communications, Vol.20, Issue.3,2002, pp.507-514.
[20]D. Mavrakis and M. Kamal-Saadi, "Mobile Broadband Access at Home:The Business Case for Femtocells, UMA and IMS/VCC Dual Mode Solutions", Informa Telecoms and Media, Sep.2008.
[21]S. Carlaw, "IPR and the Potential Effect on Femtocell Markets", FemtoCells Europe, London, UK, Jun.2008.
[22]G. Mansfield, "Femtocells in the US Market-Business Drivers and Consumer Propositions," FemtoCells Europe, ATT, London, U.K., June 2008.
[23]Pabst R, Walke B H, et al. "Relay-based deployment concepts for wireless and mobile broadband radio," IEEE Communications Magazine, Vol.42, pp.80-89, 2004.
[24]J. N. Laneman, D. N. C. Tse, and G. W. Wornell, "Cooperative diversity in wireless networks:Efficient protocols and outage behavior", IEEE Transactions on Information Theory, vol.50, pp.3062-3080,2004.
[25]K. Azarian, H. E. Gamal, and P. Schniter, "On the achievable diversity-multiplexing tradeoff in half-duplex cooperative channels", IEEE Transactions on Information Theory, vol.51, pp.4152-4172,2005.
[26]David Tse, Multiuser Diversity in Wireless Networks:Smart Scheduling, Dumb Antennas and Epidemic Communication, IMA Wireless Workshop, August 10th, 2001.
[27]Liang Xiao, Lin Dai, Hairuo Zhuang, Shidong Zhou and Yan Yao, "Information-theoretic capacity analysis in MIMO distributed antenna systems", Proc. IEEE Veh. Technology Conf., pp.779-782, Apr.2003.
[28]Wonil Roh, Arogyaswami Paulraj, "MIMO channel capacity for the distributed antenna", VTC 2002-Fall, vol.2,2002, pp.706-709.
[29]Wan Choi, Jeffrey G. Andrews, "Downlink performance and capacity of distributed antenna systems in a multicell environment", IEEE Transactions on Wireless Communications, vol.6, no.1, Jan 2007.
[30]X. Yu, X. Liu, Y. Xin, M. Chen and Y. Rui, "Capacity Analysis of Distributed Antenna Systems with Multiple Receive Antennas over MIMO Fading Channel," International Journal of Antennas and Propagation, Jan.2012, ID 409254.
[31]Jiansong Gan, Yunzhou Li, Shidong Zhou, and Jing Wang "Adaptive Transmit-Receive Mode Selection for Multi-User Distributed Wireless Communication System", proceedings of IEEE WCNC 2007.
[32]Honglin Hu, Martin Weckerle, Jijun Luo "Adaptive transmission mode selection scheme for distributed wireless communication systems", IEEE Communications Letters, vol.10, no.7, July 2006.
[33]H. Kim, S. Lee, K. Lee and I. Lee, "Transmission Schemes Based on Sum Rate Analysis in Distributed Antenna Systems," Wireless Communications, IEEE Transactions on, vol.11, issue 3,2012, pp:1201-1209.
[34]W. Feng, Y. Li, J. Gan, S. Zhou, J. Wang and M. Xia, "On the Deployment.of Antenna Elements in Generalized Multi-User Distributed Antenna Systems", Mobile Networks and Applications, vol.16, no.1,2011, pp:35-45.
[35]S. Shamai (Shitz), O. Somekh, and B. M. Zaidel, "Multi-cell communications:an information theoretic perspective," in Proc. Joint Workshop on Communications and Coding (JWCC), Florence, Italy, Oct.2004.
[36]S. Shamai (Shitz) and B. M. Zaidel, "Enhancing the cellular downlink capacity via co-processing at the transmitting end," in Proc. IEEE Veh. Technol. Conf., Rhodes, Greece, May 2001, pp.1745-1749.
[37]H. Zhang and H. Dai, "Cochannel interference mitigation and cooperative processing in downlink multi-cell multi-user MIMO networks," European J. Wireless Commun. and Networking, no.2, pp.222-235,4th Quarter 2004.
[38]K. Karakayali, G. J. Foschini, R. A. Valenzuela, and R. Yates, "On the maximum common rate achievable in a coordinated network," in Proc. IEEE Int. Conf. Commun., Istanbul, Turkey, June 2006, pp.4333-4338.
[39]J. Zhang, R. Chen, J. G. Andrews, A. Ghosh, and R. W. Heath, Jr., "Networked MIMO with Clustered Linear Precoding", IEEE Trans. Wireless Commun., vol.8, no.4, April 2009.
[40]T. K. Akino, A. Molisch, C. Duan, Z. Tao, P. Orlik, "Capacity, MSE and secrecy analysis of linear block precoding for distributed antenna systems in multi-user frequency-selective fading channels", IEEE Trans. Commun.,2011, vol.59, issue 3,888-900.
[41]Song Xinghua, He Zhiqiang, Niu Kai, Wu Weiling, "A Hierarchical Resource Allocation for OFDMA Distributed Wireless Communication Systems", Proc. IEEE GLOBECOM 2007.
[42]D. Lee, V. Leung, "Fair Allocation of Sub-carrier and Power in an OFDMA Wireless Mesh Network," IEEE J. Select. Areas Commun., Vol.24, Issue.11, pp. 2051-2060, Nov.2006.
[43]N. Dawod, I. Marsland, R. Hafez, "Improved transmit steering for MIMO-OFDM downlinks with distributed base station antenna arrays", IEEE J. Sel. Areas Commun. vol.24, no.3,419-426,2006.
[44]J. Kenneth, "Interference Alignment with Distributed Antenna Systems", Master's thesis, University of Texas at Austin, Feb.2012.
[45]Attar A., H. Li, Leung V.C.M., "Green last mile:how fiber-connected massively distributed antenna systems can save energy", Wireless Communications, IEEE, Oct.2011, vol.18, Issue 5, pp:66-74.
[46]J. Wang, H. Zhu and Gomes, N.J, "Distributed Antenna Systems for Mobile Communications in High Speed Trains", Selected Areas in Communications, IEEE Journal on,2012, vol.30, issue 4, pp:675-683.
[47]Sigen Ye, Rick S. Blum, Leonard J. Cimini, Jr., "Adaptive OFDM systems with imperfect channel state information", IEEE Transactions on Wireless Communications, vol.5, no.11, Nov.2006.
[48]S. Huang, H. Li, J. Wu, Leung V.C.M., "A Reliable Group-Simulcasting Scheme for Distributed Antenna Systems", Wireless Communications, IEEE Transactions on, Jan.2012, vol.11, issue 1, pp:236-245.
[49]Feng Jiang, Ying Wang, Xi Fang, Kai Sun, Guona Hu, Ping Zhang, "Cross-Layer Design for the MIMO System with Zero-Forcing Receiver in the Presence of Channel Estimation Error," accepted in IEEE ICC 2008.
[50]Grieger M., Helbing P., Fettweis G. and Marsch P., "Field trial evaluation of compression algorithms for distributed antenna systems," Sarnoff Symposium, 2011,34th IEEE, May 2011.
[51]Guona Hu, Feng Jiang, Ying Wang, Yongtai Xu, and Ping Zhang, "On the Performance of a Multi-user Multi-antenna System with Transmit Zero-forcing Beamforming and Feedback Delay," accepted in IEEE WCNC 2008.
[52]Cao Peng, Kang Guixia, Zhang Ningbo, Zhang Ping, "A modified precoding scheme for MIMO downlink channel with imperfect CSIT",2008 11 th IEEE Singapore International Conference on Communication Systems, ICCS 2008.
[53]Performance evaluation of distributed multi-cell beamforming for MU-MIMO systems Wireless Communication Systems (ISWCS),2011 8th International Symposium on, Nov.2011, pp:547-551.
[54]Osvaldo Simeone, Oren Somekh, H. Vincent Poor and Shlomo Shamai (Shitz), "Local Base Station Cooperation via Finite-Capacity Links for the Uplink of Linear Cellular Networks", IEEE Trans. Inform. Theory, vol.55, no.1, Jan.2009.
[55]W. Feng, Y. Wang, M. Zhao, S. Zhou and J. Wang, "Practical power allocation for clustered distributed antenna systems in the low SNR regime", International Journal of Electronics and Communications, vol.65, issue 6, June 2011, pp:595-598.
[56]S. Bavarian and J. K. Cavers, "Reduced complexity distributed base station processing in the uplink of cellular networks," in Proc. IEEE Global Telecommun. Conf. (GLOBECOM 2006), Washington, DC, Nov.2007, pp.4500-4504.
[57]T. Mayer, H. Jenkac, and J. Hagenauer, "Turbo base-station cooperation for inter-cell interference cancellation," in Proc. IEEE Int. Conf. Communications (ICC 2006), Istanbul, Turkey, Jun.2006, vol.11, pp.4977-4982.
[58]O. Somekh, B. Zaidel, and S. Shamai (Shitz), "Sum rate characterization of joint multiple cell-site processing," IEEE Trans. Inf. Theory, vol.53, no.12, pp. 4473-4497, Dec.2007.
[59]A. Sanderovich, O. Somekh, and S. Shamai (Shitz), "Uplink macro-diversity with limited backhaul capacity," in Proc. IEEE Int. Symp. Information Theory (ISIT 2007), Nice, France, Jun.2007, pp.11-15.
[60]L. Zhong, Y. Ji, K. Yang, "Energy-Efficient Resource Allocation in Mobile Networks with Distributed Antenna Transmission," Mobile Networks and Applications, vol.17, issue 1, Feb.2012.
[61]S. Shamai (Shitz), O. Simeone, O. Somekh, and H. V. Poor, "Joint multi-cell processing for downlink with limited-capacity backhaul," in Proc. Information Theory and Applications Workshop, San Diego, CA, Jan./Feb.2008.
[62]H. Zhang, N. B. Mehta, A. F. Molisch, J. Zhang, and H. Dai, "Asynchronous interference mitigation in cooperative base station systems," IEEE Trans. Wireless Commun., vol.7, no.1, pp.155-165, Jan.2008.
[63]Q. H. Spencer, A. L. Swindlehurst, and M. Haardt, "Zero-forcing methods for downlink spatial multiplexing in multi-user MIMO channels," IEEE Trans. Signal Processing, vol.52, pp.461-471, Feb.2004.
[64]L. U. Choi and R. D. Murch, "A transmit preprocessing technique for multi-user MIMO systems using a decomposition approach," IEEE Trans. Wireless Commun., vol.3, no.1, pp.20-24, Jan.2004.
[65]L. Ling, T. Wang, Y. Wang, C. Shi, Schemes of power allocation and antenna port selection in OFDM distributed antenna systems, in IEEE 72nd Vehicular Technology Conference Fall,2010, pp.1-5.
[66]P. Gong, K. Yu, Y. Wang, "Radio resource allocation for multiuser OFDMA distributed antenna systems", in IEEE International Conference on Network Infrastructure and Digital Content,2009. IC-NIDC,2009, pp.912-916.
[67]W. Chen, C. Zhu and T. Naito, "Enhanced OFDM Distributed Antenna Systems through Power Redistribution", Wired/Wireless Internet Communications,2011, vol.6649/2011, pp:259-271.
[68]W. Yu, T. Lan, "Transmitter optimization for the multi-antenna downlink with per-antenna power constraints", IEEE Trans. Signal Process. vol.55, no.6,2646- 2660,2007.
[69]G. Miao, N. Himayat, Y. Li, D. Bormann, "Energy effcient design in wireless OFDMA", in IEEE International Conference on Communications,2008. ICC'08, 2008, pp.3307-3312.
[70]B. Badic, T. O'Farrrell, P. Loskot, J. He, "Energy effcient radio access architectures for green radio:large versus small cell size deployment", in IEEE 70th Vehicular Technology Conference Fall,2009, pp.1-5.
[71]F. Richter, A. Fehske, G. Fettweis, "Energy effciency aspects of base station deployment strategies for cellular networks", in IEEE 70th Vehicular Technology Conference Fall,2009, pp.1-5.
[72]M. S. Alouini and A. Goldsmith, "Area Spectral Efficiency of Cellular Mobile Radio Systems", IEEE Trans. on Vehicular Tech., vol.48, no.4, pp.1047-1066, 1999.
[73]D. L. Perez, A. Valcarce, G. D. L. Roche, E. Liu, and J. Zhang, "Access methods to WiMAX femtocells:A downlink system-level case study," Proc. IEEE Int. Conf. Commun. Syst. (ICCS), Guangzhou, China, Nov.2008, pp.1657-1662.
[74]Tan Wang, et al., "A Pico-eNodeB Deployment Algorithm for the Coverage of Outdoor Hotzone Users", Proc. WMC 2011.
[75]Guvenc, I., "Capacity and Fairness Analysis of Heterogeneous Networks with Range Expansion and Interference Coordination", Communications Letters, IEEE, vol.15, issue 10, pp:1084-1087,2011.
[76]H. Li, Hajipour, J., Attar, A., Leung, V.C.M, "Efficient HetNet implementation using broadband wireless access with fiber-connected massively distributed antennas architecture", Wireless Communications, IEEE, vol.18, issue 3, pp: 72-78,2011.
[77]胡春静,段洪涛,王文博,"OFDMA系统家庭基站的上行容量模型和性能分析”,北京邮电大学学报,2011,34(1)75-79.
[78]D. Amzallag et al., "Cell selection in 4G cellular networks", in Proc. IEEE Infocom 2008, pp.700-708, Apr.2008.
[79]J. Moon, and D. Cho, "Efficient Cell Selection Algorithm in Hierarchical Cellular Networks:Multi-User Coordination", IEEE Commun. Letters, vol.14, no.2, Feb. 2010.
[80]H. Lee, D. Oh, and Y. Lee, "Mitigation of Inter-Femtocell Interference with Adaptive Fractional Frequency Reuse", in Proc. IEEE ICC 2010, May 2010.
[81]R1-102775, Increasing footprint of low power nodes for improved performance, 3GPP TSG-RAN WG1#61,2010.
[82]R1-102976, Performance and interference aspects of macro with outdoor pico hotspot,3GPP TSG RAN WG1#61 Meeting,2010.
[83]R1-103125, Evaluation of Rel-8/9 techniques and range expansion for macro and outdoor hotzone,3GPP TSG RAN WG1 meeting #61,2010.
[84]Rl-103160, System Performance of HetNet with Pico eNB,3GPP TSG RAN1#61,2010.
[85]Landstrom, S. and Murai, H. and Simonsson, A., "Deployment Aspects of LTE Pico Nodes", Communications Workshops (ICC),2011 IEEE International Conference on.
[1]S. Huang, H. Li, J. Wu, Leung V.C.M., "A Reliable Group-Simulcasting Scheme for Distributed Antenna Systems", Wireless Communications, IEEE Transactions on, Jan.2012, vol.11, issue 1, pp:236-245.
[2]G. Caire and S. Shamai (Shitz), "On the achievable throughput of a multi-antenna Gaussian broadcast channel," IEEE Trans. Inform. Theory, vol.49, no.7, pp. 1691-1706,July 2003.
[3]S. Vishwanath, N. Jindal, and A. Goldsmith, "Duality, achievable rates, and sum-rate capacity of MIMO broadcast channels," IEEE Trans. Inform. Theory, vol.49, no.10, pp.2658-2668, Oct.2003.
[4]P. Viswanath and D. N. C. Tse, "Sum capacity of the vector Gaussian broadcast channel and uplink-downlink duality," IEEE Trans. Inform. Theory, vol.49, no.8, pp.1912-1921, Aug.2003.
[5]W. Yu and J. Cioffi, "The sum capacity of a Gaussian vector broadcast channel," IEEE Trans. Inform. Theory, vol.50, no.9, pp.1875-1892, Sept.2004.
[6]H. Weingarten, Y. Steinberg, and S. Shamai, "The capacity region of the Gaussian multiple-input multiple-output broadcast channel," IEEE Trans. Inform. Theory, vol.52, no.9, pp.3936-3964, Sept.2006.
[7]L. U. Choi and R. D. Murch, "A transmit preprocessing technique for multi-user MIMO systems using a decomposition approach," IEEE Trans. Wireless Commun., vol.3, no.1, pp.20-24, Jan.2004.
[8]Q. H. Spencer, A. L. Swindlehurst, and M. Haardt, "Zero-forcing methods for downlink spatial multiplexing in multi-user MIMO channels," IEEE Trans. Signal Processing, vol.52, pp.461-471, Feb.2004.
[9]Z. Pan, K. K. Wong, and T. S. Ng, "Generalized multi-user orthogonal space-division multiplexing," IEEE Trans. Wireless Commun.,vol.3, no.6, pp. 1969-1973, Nov.2004.
[10]R. Chen, J. G. Andrews, and R. W. Heath, Jr., "Multi-user space-time block coded MIMO system with downlink precoding," in Proc. IEEE Int. Conf. Commun., vol. 5, Paris, France, June 2004, pp.2689-2693.
[11]S. Shim, J. S. Kwak, R. W. Heath, Jr., and J. G. Andrews, "Block diagonalization for multi-user MIMO with other-cell interference," IEEE Trans. Wireless Commun., vol.7, no.7, pp.2671-2681, July 2008.
[12]Z. Shen, R. Chen, J. G. Andrews, R. W. Heath, Jr., and B. L. Evans, "Sum capacity of multiuser MIMO broadcast channels with block diagonalization," IEEE Trans. Wireless Commun., vol.6, no.6, pp.2040-2045, June 2007.
[13]H. Zhang and H. Dai, "Cochannel interference mitigation and cooperative processing in downlink multi-cell multi-user MIMO networks," European J. Wireless Commun. and Networking, no.2, pp.222-235,4th Quarter 2004.
[14]B. L. Ng, J. S. Evans, S. V. Hanly, and D. Aktas, "Transmit beamforming with cooperative base stations," in Proc. IEEE Intl. Symp. Inf. Theory,2005, pp. 1431-1435.
[15]Grieger M., Helbing P., Fettweis G. and Marsch P., "Field trial evaluation of compression algorithms for distributed antenna systems," Sarnoff Symposium, 2011,34th IEEE, May 2011.
[16]A. Tarighat, M. Sadek, A.H. Sayed. a multiuser beamforming scheme for downlink MIMO channels based on maximizing signal-to-leakage ratios. IEEE International Conference on Speech and Signal Processing. Vol 3.2005: 1129-1132.
[17]Wang J., L.B. Milstein, "CDMA overlay situations for microcellular mobile communications," IEEE Transactions on Communications, vol.43, no.2/3/4, pp. 603-614, Feb/March/April 1995.
[18]Wang, J., Chen, J., "Performance of wideband CDMA system with complex spreading and imperfect channel estimation," IEEE Journal on Selected Areas in Communications, Vol.19, No.1, pp.152-163, Jan.2001.
[19]H. Zhang, N. B. Mehta, A. F. Molisch, J. Zhang, and H. Dai, "Asynchronous interference mitigation in cooperative base station systems," IEEE Trans. Wireless Commun., vol.7, no.1, pp.155-165, Jan.2008.
[20]Zheng Pinlian, Xie Xianzhong, Qu Gang. Suppressed inter-cell asynchronous interference by delay-tolerance SLNR precoding. In The 12th International Conference on Advanced Communication Technology (ICACT). Vol 1.2010: 627-632.
[21]Y. Liang, Goldsmith, A., "Adaptive Channel Reuse in Cellular Systems", Communications,2007. ICC'07. IEEE International Conference on, pp:857-862.
[22]J. Gan, Y. Li, S. Zhou and J. Wang "Adaptive Transmit-Receive Mode Selection for Multi-User Distributed Wireless Communication System", proceedings of IEEE WCNC 2007.
[23]3GPP Tech. Rep. TR 36.814 v9.0.0, "Further advancements for E-UTRA physical layer aspects", Mar.2010.
[1]J. Zhang, R. Chen, J. G. Andrews, A. Ghosh, and R. W. Heath, Jr., "Networked MIMO with Clustered Linear Precoding", IEEE Trans. Wireless Commun., vol.8, no.4, April 2009.
[2]T. K. Akino, A. Molisch, C. Duan, Z. Tao, P. Orlik, "Capacity, MSE and secrecy analysis of linear block precoding for distributed antenna systems in multi-user frequency-selective fading channels", IEEE Trans. Commun.59 (3),888-900, 2011.
[3]W. Feng, Y. Wang, M. Zhao, S. Zhou and J. Wang, "Practical power allocation for clustered distributed antenna systems in the low SNR regime", International Journal of Electronics and Communications, vol.65, issue 6, June 2011, pp:595-598.
[4]Song Xinghua, He Zhiqiang, Niu Kai, Wu Weiling, "A Hierarchical Resource Allocation for OFDMA Distributed Wireless Communication Systems", Proc. IEEE GLOBECOM 2007.
[5]D. Lee, V. Leung, "Fair Allocation of Sub-carrier and Power in an OFDMA Wireless Mesh Network," IEEE J. Select. Areas Commun., Vol.24, Issue.11, pp. 2051-2060, Nov.2006.
[6]N. Dawod, I. Marsland, R. Hafez, "Improved transmit steering for MIMO-OFDM downlinks with distributed base station antenna arrays", IEEE J. Sel. Areas Commun. vol.24, no.3,419-426,2006.
[7]L. Ling, T. Wang, Y. Wang, C. Shi, "Schemes of power allocation and antenna port selection in OFDM distributed antenna systems", in IEEE 72nd Vehicular Technology Conference Fall,2010, pp.1-5.
[8]P. Gong, K. Yu, Y. Wang, "Radio resource allocation for multiuser OFDMA distributed antenna systems", in IEEE International Conference on Network Infrastructure and Digital Content,2009. IC-NIDC,2009, pp.912-916.
[9]W. Chen, C. Zhu and T. Naito, "Enhanced OFDM Distributed Antenna Systems through Power Redistribution", Wired/Wireless Internet Communications,2011, vol.6649/2011, pp:259-271.
[10]E Oh, B Krishnamachari, X Liu, Z Niu, "Towards dynamic energy-effcient operation of cellular network infrastructure", IEEE Commun. Mag.2010.
[11]F. Meshkati, H. Poor, S. Schwartz, N. Mandayam, "An energy-effcient approach to power control and receiver design in wireless data networks", IEEE Trans. Commun. vol.53, no.11,1885-1894,2005.
[12]W. Yu, T. Lan, "Transmitter optimization for the multi-antenna downlink with per-antenna power constraints", IEEE Trans. Signal Process, vol.55, no.6,2646-2660,2007.
[13]G. Miao, N. Himayat, Y. Li, D. Bormann, "Energy effcient design in wireless OFDMA", in IEEE International Conference on Communications,2008. ICC'08, 2008, pp.3307-3312.
[14]B. Badic, T. O'Farrrell, P. Loskot, J. He, "Energy effcient radio access architectures for green radio:large versus small cell size deployment", in IEEE 70th Vehicular Technology Conference Fall,2009, pp.1-5.
[15]F. Richter, A. Fehske, G. Fettweis, "Energy effciency aspects of base station deployment strategies for cellular networks", in IEEE 70th Vehicular Technology Conference Fall,2009, pp.1-5.
[16]L. Zhong, Y. Ji, K. Yang, "Energy-Efficient Resource Allocation in Mobile Networks with Distributed Antenna Transmission," Mobile Networks and Applications, vol.17, issue 1, Feb.2012.
[17]Attar A., H. Li, Leung V.C.M. "Green last mile:how fiber-connected massively distributed antenna systems can save energy", Wireless Communications, IEEE, Oct.2011, vol.18, Issue 5, pp:66-74.
[18]Wan Choi, Jeffrey G. Andrews, "Downlink performance and capacity of distributed antenna systems in a multicell environment", IEEE Transactions on Wireless Communications, vol.6, no.1, Jan 2007.
[19]W. Yu, R. Lui, "Dual methods for nonconvex spectrum optimization of multicarrier systems", IEEE Trans. Commun. vol.54, no.7,1310-1322,2006.
[20]S Boyd, L Vandenberghe, Convex optimization, Cambridge University Press, Cambridge,2004.
[21]Y. Chen, S. Zhang, S. Xu, Li G.Y., "Fundamental trade-offs on green wireless networks," Communications Magazine, IEEE, June 2011, vol.49, issue 6, pp:30-37.
[1]3GPP Tech. Rep. TR 36.814 v9.0.0, "Further advancements for E-UTRA physical layer aspects", Mar.2010.
[2]R1-102775, Increasing footprint of low power nodes for improved performance, 3GPP TSG-RAN WG1 #61,2011.
[3]R1-102976, Performance and interference aspects of macro with outdoor pico hotspot,3GPP TSG RAN WG1 #61,2011.
[4]R1-103125, Evaluation of Rel-8/9 techniques and range expansion for macro and outdoor hotzone,3GPP TSG RAN WG1 meeting #61,2011.
[5]R1-103160, System Performance of HetNet with Pico eNB,3GPP TSG RAN1#61,2011.
[6]R1-102676, DL Interference Mitigation via Direction Information in Het-Net, 3GPP TSG RAN WG1 meeting #61,2011.
[7]R1-102670, Identification of Co-channel Problems with Het-Net Deployments, 3GPP TSG RAN WG1 meeting #61,2011.
[8]R1-102974, HetNet interference management needs and candidate solutions, 3GPP TSG RAN WG1#61,2011.
[9]Qualcomm Europe, R1-083813, "Range expansion for efficient support of heterogeneous networks",3GPP TSG RAN WG1 #54bis, Prague, Sep.,2008.
[10]Huawei, R1-101083, "Cell association analysis in outdoor Hotzone of hetero-geneous networks",3GPP TSG RAN WG1#60, San Francisco, USA, Feb.,2010.
[11]Ericsson, ST-Ericsson, R1-101752, "Considerations on non-CA based hetero-geneous deployments",3GPP TSG RAN WG1 #60bis, Beijing, China, April, 2010.
[12]Foschini, G.J., Karakayali, K, Valenzuela, R.A., "Coordinating multiple antenna cellular networks to achieve enormous spectral efficiency", Communications, IEE Proceedings, vol.153, issue 4, pp:548-555,2006.
[13]Yifan Liang, Andrea Goldsmith, Gerard Foschini, Reinaldo Valenzuela and Dmitry Chizhik, "Evolution of Base Stations in Cellular Networks:Denser Deployment versus Coordination", IEEE ICC 2008.
[14]3GPP TS 25.814, Physical layer aspects for evolved Universal Terrestrial Radio Access (UTRA).
[1]Tan Wang, et al., "A Pico-eNodeB Deployment Algorithm for the Coverage of Outdoor Hotzone Users", Proc. WMC 2011.
[2]Guvenc, I., "Capacity and Fairness Analysis of Heterogeneous Networks with Range Expansion and Interference Coordination", Communications Letters, IEEE, vol.15, issue 10, pp:1084-1087,2011.
[3]H. Li, Hajipour, J., Attar, A., Leung, V.C.M, "Efficient HetNet implementation using broadband wireless access with fiber-connected massively distributed antennas architecture", Wireless Communications, IEEE, vol.18, issue 3, pp: 72-78,2011.
[4]R. Wang, Y. Du, "Het-Net Throughput Analysis with Picocell Interference Cancellation," Communications Workshops (ICC),2011 IEEE International Conference on, pp.1-6, June 2011.
[5]Saker L., Elayoubi S.E., Rong L., Chahed T., "Capacity and Energy Efficiency of Picocell Deployment in LTE-A Networks", Vehicular Technology Conference (VTC Spring), pp.1-6, May 2011.
[6]Lopez-Perez D., Chu X., Guvenc I., "On the Expanded Region of Picocells in Heterogeneous Networks", Selected Topics in Signal Processing, IEEE Journal of, vol. PP, issue 99, Mar.2012.
[7]Guvenc I., M. Jeong, Demirdogen I., Kecicioglu B and Watanabe F., "Range Expansion and Inter-Cell Interference Coordination for Picocell Networks", Vehicular Technology Conference (VTC Fall), Sept.2011.
[8]D. Amzallag et al., "Cell selection in 4G cellular networks", in Proc. IEEE Infocom 2008, pp.700-708, Apr.2008.
[9]J. Moon, and D. Cho, "Efficient Cell Selection Algorithm in Hierarchical Cellular Networks:Multi-User Coordination", IEEE Commun. Letters, vol.14, no.2, Feb. 2010.
[10]H. Lee, D. Oh, and Y. Lee, "Mitigation of Inter-Femtocell Interference with Adaptive Fractional Frequency Reuse", in Proc. IEEE ICC 2010, May 2010.
[11]I. Maric, B. Bostjancic, A. Goldsmith, "Resource Allocation for Constrained Backhaul in Picocell Networks", Information Theory and Applications Workshop (ITA), Feb.2011.
[12]3GPP Tech. Rep. TR 36.814 v9.0.0, "Further advancements for E-UTRA physical layer aspects", Mar.2010.
[13]Landstrom, S. and Murai, H. and Simonsson, A., "Deployment Aspects of LTE Pico Nodes", Communications Workshops (ICC),2011 IEEE International Conference on.
[14]S. G. Kiani, G. E. Oien, and D. Gesbert, "Maximizing Multicell Capacity Using Distributed Power Allocation and Scheduling", in Proc. IEEE WCNC 2007, Mar. 2007.
[15]H. Lee, D. Oh, and Y. Lee, "Mitigation of Inter-Femtocell Interference with Adaptive Fractional Frequency Reuse", in Proc. IEEE ICC 2010, May 2010.
[16]Qualcomm Europe, Rl-083813, "Range expansion for efficient support of heterogeneous networks",3GPP TSG RAN WG1#54bis, Prague, Sep.,2008.
[17]Huawei, R1-101083, "Cell association analysis in outdoor Hotzone of hetero-geneous networks",3GPP TSG RAN WG1 #60, San Francisco, USA, Feb.,2010.
[18]Ericsson, ST-Ericsson, R1-101752, "Considerations on non-CA based hetero-geneous deployments",3GPP TSG RAN WG1#60bis, Beijing, China, April, 2010.
[1]Tan Wang, Wang Ying, Sun Kai, Zhang Ping, "On the Performance of Downlink Transmission for Distributed Antenna Systems with Multi-Antenna Arrays", Proc. IEEE VTC 2009-fall.
[2]Tan Wang, Wang Ying, Shi Cong, Zhang Ping, "Joint Resource Allocations for Remote Radio Head Deployments with Coherent Transmitter", EURASIP Journal on Wireless Communications and Networking 2012,2012:111.
[3]Tan Wang, Wang Ying, Zhang Ping, "Resource Allocation in Downlink OFDM A Distributed Multipoint Systems with Incoherent and Coherent Transmitters", Journal of China University of Posts and Telecom,2011.
[4]Tan Wang, Wang Ying, "Joint Resource Allocations in Distributed Antenna Systems with Coherent Transmitter", Globecom Workshop on Distributed Antenna Systems for Broadband Mobile Communications,2011.
[5]Lisha Ling, Tan Wang, et al, "Schemes of Power Allocation and Antenna Port Selection in OFDM Distributed Antenna Systems", Proc. IEEE VTC 2010-fall.
[6]Tan Wang, et al., "A Pico-eNodeB Deployment Algorithm for the Coverage of Outdoor Hotzone Users", Proc. WMC 2011.
[7]Foschini, G.J., Karakayali, K, Valenzuela, R.A., "Coordinating multiple antenna cellular networks to achieve enormous spectral efficiency", Communications, IEE Proceedings, vol.153, issue 4, pp:548-555,2006.
[8]Yifan Liang, Andrea Goldsmith, Gerard Foschini, Reinaldo Valenzuela and Dmitry Chizhik, "Evolution of Base Stations in Cellular Networks:Denser Deployment versus Coordination", IEEE ICC 2008.
[9]3GPP Tech. Rep. TR 36.814 v9.0.0, "Further advancements for E-UTRA physical layer aspects", Mar.2010.
[10]Ying, Wang, Huiling Dai, Tan Wang, et al, "An Improved Block Diagonalization Algorithm under Asynchronous Interference Condition" accepted by IET communications.2011.
[11]A. Bedekar, S. Borst, K. Ramanan, P. Whiting, and E. Yeh, "Downlink scheduling in CDMA data networks," in Proc. IEEE Globecom,Riode Janeiro,1999, pp. 2653-2657.
[12]A. Gjendemsj(?), D. Gesbert, G. E.(?)ien, and S. G. Kiani, "Optimal power allocation and scheduling for two-cell capacity maximization," in Proc. RAWNET (WiOpt), Boston, Apr.2006.
[13]S. G. Kiani and D. Gesbert, "Maximizing the capacity of large wireless networks: Optimal and distributed solutions," in Proc. IEEE ISIT, Seattle, USA, July 2006.