基于低压电力线煤矿井下信号提取和传输关键技术研究
|
摘要
我国煤矿众多,煤矿自动化生产要求越来越高,但多年来煤矿井下信号提取和传输技术发展缓慢,各个厂家的产品采用不同的通信技术方式,形成了井下多种信道共存,多种通信方法共存的局面,很难建立一个覆盖全矿井的信息网络,以实现信息共享,严重制约了煤矿自动化的发展,甚至造成了每年大量的煤矿事故发生,造成生产人员大量伤亡、国家财产巨大损失。目前,还没有有效的方法来解决这一问题。本文就基于低压电力线的煤矿井下信号提取和传输技术进行了深入研究。该研究不仅具有理论意义,而且具有较大的实用价值。通过对类似煤矿井下的特殊环境信号提取和传输技术的研究,可建立相关理论和算法,另外,可将研究成果服务于特殊环境下的生产和安全需要,解决煤矿特殊环境下所面临的实际问题。
基于低压电力线的数字信息网络建设的研究重点是信道建模和通信方法的研究。本文分别从煤矿井下低压电力线信道特性测试、信道建模和数字信息通信技术等三个方面出发,对煤矿井下基于低压电力线的数字信号提取与传输的关键技术进行了深入研究,主要研究工作和研究成果如下:
1、提出并建立了基于小波矩阵扩展的煤矿井下低压电力线信道模型。目前基于低压电力线的信道建模研究基本上都集中在地面上低压电力线的信道上。其中最典型的信道建模方法主要有:基于多径效应的建模方法和基于传输矩阵的建模方法,这两种建模方法在煤矿井下信道建模上存在建模困难,实时调整性差等缺点,难以满足井下数字信息通信需要。实验表明,新建的模型具有建模准确,实时性强的优点,能够满足数字信息提取和传输的实时性要求。
2、提出并建立了基于WAVELET-OFDM的井下低压电力线通信技术,推导得出了基于Daubechies小波基的WAVLET-OFDM分析和综合滤波器结构及算法,解决了OFDM通信技术在井下低压电力线上传输数字信息存在传输效率低,频谱特性差等问题,改善了系统的通信性能。
3、OFDM技术在井下低压电力线上存在抗干扰性能差和峰均功率比高等问题。为克服此问题,本文建立了基于CLUSTER-OFDM的井下低压电力线通信技术,建立了基于低压电力线的子群分配机制。仿真实验结果证明了建立的CLUSTER-OFDM算法的有效性,可以有效地降低系统的计算复杂度,改善系统的峰均功率比,提高系统的可靠性。
4、OFDM技术在煤矿井下低压电力线通信上表现出较强的频谱零点现象,即对某些频率点的信号传输误码率较高,影响了信号提取和传输。本文建立了基于PRECODED-OFDM的煤矿井下低压电力线信道数字信号通信技术。基于井下低压电力线的PRECODED-OFDM技术不同于无线通信领域的预编码技术,建立的结构简单、易于编码的预编码算法有重要意义,仿真结果表明本文所提算法能在计算量增加不大的情况下消除频谱零点问题,有效提高系统的通信质量。
Nowadays there are many coal mines in our country. The automation of coal mine production is getting more and more important. While the development of signal extraction and transmission technology (SETT) underground coal mining is lagged. Communication network which can overcast the whole coal mine is difficult to establish, so the information sharing cannot work better because of different technique protocol used in different communication equipments. So the coal mine automation development is restricted badly. And even more, it could make large numbers of coal mine accidents, which could take a heavy number of casualties and national property loss. At present, there is not effective technology to solve this problem. SETT based on low voltage power line underground coal mine (LVPLUCM) is deeply researching in this work. Not only is the study theoretic meaning, but it has practical value. First of all, the theory and algorithm are built by researching SETT of special environments similar as underground coal mine. Second, the results of this research can be applied to production and safety of special environments and can resolve practical problem of underground coal mine.
The research emphases of the high-speed digital network construction based on LVPLUCM is the channel modeling and the communication technique. The key SETT based on LVPLUCM were studied deeply, such as the methods of LVPLUCM characteristics testing, channel modeling and the technique of digital communications. The main research work and contributions are as follows:
1. The channel model of LVPLUCM based on the expansion of wavelet matrix is built in the paper. Now, the researches of channel modeling based on LVPLUCM are concentrated on the channel of over ground low voltage power line. The most typical techniques of channel modeling are the method of modeling based on multi-path and transmission matrix. Both are difficult when they are carried out on the channel modeling underground coal mine due to the disadvantage of property of real time adjustment. The experiments show that the model is exact and the real time property of the model is excellent. The model can meet the requirement of real time property of digital signal extraction and transmission.
2. In this paper the technique of LVPLUCM based wavelet-OFDM is proposed. The construct and arithmetic of the synthesis filter based on Daubechies wavelet-OFDM was built in this work. This technology can solve low efficiency and bad spectrum features of the OFDM. The communication performance can be improved through this technology.
3. Capacity of resisting disturbance is not good enough and the PAPR is high when the technique of traditional OFDM was used on LVPLUCM to transmit digital signal. The technique based on CLUSTER-OFDM was proposed and cluster distribution mechanism was built in this paper. The simulation results verify the effectiveness of the proposed algorithm. The complexity was reduced efficiently, PAPR was improved and the system reliability was increased by using the technique of CLUSTER-OFDM.
4. The bit error rate at some frequency is extremely high when the traditional OFDM technique was used in LVPLUCM, which effects the communication of signal information badly. The underground low voltage power line communication technique based on PRECODED-OFDM was built in this paper. The technique is different to the pre-coding technique in the field of wireless communication, so it is very important to build a simple structure and an easy coding process of the pre-coding technique. The conclusion of simulation shows that the problem of bad null-spectrum can be solved using the technique built in this work with a little increment of calculation. And the efficiency of communication can be improved observably.
基于低压电力线的数字信息网络建设的研究重点是信道建模和通信方法的研究。本文分别从煤矿井下低压电力线信道特性测试、信道建模和数字信息通信技术等三个方面出发,对煤矿井下基于低压电力线的数字信号提取与传输的关键技术进行了深入研究,主要研究工作和研究成果如下:
1、提出并建立了基于小波矩阵扩展的煤矿井下低压电力线信道模型。目前基于低压电力线的信道建模研究基本上都集中在地面上低压电力线的信道上。其中最典型的信道建模方法主要有:基于多径效应的建模方法和基于传输矩阵的建模方法,这两种建模方法在煤矿井下信道建模上存在建模困难,实时调整性差等缺点,难以满足井下数字信息通信需要。实验表明,新建的模型具有建模准确,实时性强的优点,能够满足数字信息提取和传输的实时性要求。
2、提出并建立了基于WAVELET-OFDM的井下低压电力线通信技术,推导得出了基于Daubechies小波基的WAVLET-OFDM分析和综合滤波器结构及算法,解决了OFDM通信技术在井下低压电力线上传输数字信息存在传输效率低,频谱特性差等问题,改善了系统的通信性能。
3、OFDM技术在井下低压电力线上存在抗干扰性能差和峰均功率比高等问题。为克服此问题,本文建立了基于CLUSTER-OFDM的井下低压电力线通信技术,建立了基于低压电力线的子群分配机制。仿真实验结果证明了建立的CLUSTER-OFDM算法的有效性,可以有效地降低系统的计算复杂度,改善系统的峰均功率比,提高系统的可靠性。
4、OFDM技术在煤矿井下低压电力线通信上表现出较强的频谱零点现象,即对某些频率点的信号传输误码率较高,影响了信号提取和传输。本文建立了基于PRECODED-OFDM的煤矿井下低压电力线信道数字信号通信技术。基于井下低压电力线的PRECODED-OFDM技术不同于无线通信领域的预编码技术,建立的结构简单、易于编码的预编码算法有重要意义,仿真结果表明本文所提算法能在计算量增加不大的情况下消除频谱零点问题,有效提高系统的通信质量。
Nowadays there are many coal mines in our country. The automation of coal mine production is getting more and more important. While the development of signal extraction and transmission technology (SETT) underground coal mining is lagged. Communication network which can overcast the whole coal mine is difficult to establish, so the information sharing cannot work better because of different technique protocol used in different communication equipments. So the coal mine automation development is restricted badly. And even more, it could make large numbers of coal mine accidents, which could take a heavy number of casualties and national property loss. At present, there is not effective technology to solve this problem. SETT based on low voltage power line underground coal mine (LVPLUCM) is deeply researching in this work. Not only is the study theoretic meaning, but it has practical value. First of all, the theory and algorithm are built by researching SETT of special environments similar as underground coal mine. Second, the results of this research can be applied to production and safety of special environments and can resolve practical problem of underground coal mine.
The research emphases of the high-speed digital network construction based on LVPLUCM is the channel modeling and the communication technique. The key SETT based on LVPLUCM were studied deeply, such as the methods of LVPLUCM characteristics testing, channel modeling and the technique of digital communications. The main research work and contributions are as follows:
1. The channel model of LVPLUCM based on the expansion of wavelet matrix is built in the paper. Now, the researches of channel modeling based on LVPLUCM are concentrated on the channel of over ground low voltage power line. The most typical techniques of channel modeling are the method of modeling based on multi-path and transmission matrix. Both are difficult when they are carried out on the channel modeling underground coal mine due to the disadvantage of property of real time adjustment. The experiments show that the model is exact and the real time property of the model is excellent. The model can meet the requirement of real time property of digital signal extraction and transmission.
2. In this paper the technique of LVPLUCM based wavelet-OFDM is proposed. The construct and arithmetic of the synthesis filter based on Daubechies wavelet-OFDM was built in this work. This technology can solve low efficiency and bad spectrum features of the OFDM. The communication performance can be improved through this technology.
3. Capacity of resisting disturbance is not good enough and the PAPR is high when the technique of traditional OFDM was used on LVPLUCM to transmit digital signal. The technique based on CLUSTER-OFDM was proposed and cluster distribution mechanism was built in this paper. The simulation results verify the effectiveness of the proposed algorithm. The complexity was reduced efficiently, PAPR was improved and the system reliability was increased by using the technique of CLUSTER-OFDM.
4. The bit error rate at some frequency is extremely high when the traditional OFDM technique was used in LVPLUCM, which effects the communication of signal information badly. The underground low voltage power line communication technique based on PRECODED-OFDM was built in this paper. The technique is different to the pre-coding technique in the field of wireless communication, so it is very important to build a simple structure and an easy coding process of the pre-coding technique. The conclusion of simulation shows that the problem of bad null-spectrum can be solved using the technique built in this work with a little increment of calculation. And the efficiency of communication can be improved observably.
引文
【A05】D. R. Amitava. Networks for Homes [J]. IEEE Spectrum, 2005, 12(50): 42-49
【A99】J. Armstrong. Analysis of New and Existing Methods of Reducing Inter-carrier Interference Due to Carrier Frequency Offset in OFDM [J]. IEEE Transactions on Communications, 1999, 47(3): 365-369
【AA05】D. Anastasiadou, T. Antonakopoulos. Multipath Characterization of Indoor Power-line Networks [J]. IEEE Transactions on Power Delivery, 2005, 20(1): 90-99
【ABCR05】R. Araneo, S. Barmada, S. Celozzi, M. Raugi. Two Port Equivalent for PCB Discontinuities in the Wavelet Domain [J]. IEEE Transactions on Microw. Theory Technology, 2005, 53(3): 907-918.
【ANK06】P. Amirshahi, S. M. Navidpour, M. Kavehrad. Performance Analysis of Uncoded and Coded OFDM Broadband Transmission over Low Voltage Power-line Channels with Impulsive Noise [J]. IEEE Transactions on Power Delivery, 2006, 21: 1927-1934
【B00】S. Ten Brink. Designing Iterative Decoding Schemse with the Extrinsic Trinsic Information Transfer Chart [J]. AEU Int. J. Elect. Communications, 2000, 54: 389-398
【B01】S. T. Brink. Convergence Behavior of Iteratively Decoded Pparallel Concatenated Codes [J]. IEEE Transactions on Communication, 2001, 49(10): 1727-1737
【B98】J. Bames. A Physical Multi-path Model for Power Distribution Network Propagation [C]. In proc. 1998 Int. Symp., Powerline Communications and Its Applications, Tokyo, Japan, 1998: 76-89
【BA90】J. Bingham, A.C. Multicarrier Modulation for Data Transmission An Idea Whose Time Has Come [J]. IEEE Communications Magazine, 1990: 5-1
【BE99】J. V. Beek, Et. al. A Time and Frequency Synchronization Scheme forMultiuser OFDM [J]. IEEE Journal on Selected Areas in Communications, 1999: 1900– 1914
【BHDB05】M. Babic, M. Hagenau, K. Dostert, J. Bausch. OPERA Deliverable D4: Theoretical Postulation of PLC Channel Model [J]. 2005.
【BMR06】S. Barmada, A. Musolino, M. Raugi. Innovative Model for Time-varying Power Line Communication Channel Response Evaluation [J]. Selected Areas in Communications, IEEE Journal, 2006, 24(7): 1317-1326
【BR00】S. Barmada, M. Raugi. Transient Numerical Solution of Nonuniform MTL Equations with Nonlinear Loads by Wavelet Expansion in Time or Space Domain [J]. IEEE Transactions on Circuits and Systems, 2000, 47(8): 1178-1190
【BRM06】S. Barmada, M. Raugi, A. Musolino. Innovative Model for Time-Varying Power Line Communication Channel Response Evaluation [J]. IEEE Journal on Selected Areas in Communications, 2006, 24(7): 1317-1326
【BRMT07】S. Barmada, M. Raugi, A. Musolino, M. Tucci. Analysis of Power Lines Uncertain Parameter Influence on Power Line Communications [J]. IEEE Transactions on Power Delivery, 2007, 22(4): 2163-2171
【BV00】T. Bostoen, O. Van Wiel. Modeling the Low-voltage Power Distribution Network in the Frequency Band From 0.5MHz to 30MHz for Broadband Power Line Communication (PLC) [J]. In Proc. Int. Zurich Semina Broadband Communications, Zurich Switzerland, 2000: 171-178
【BV03】V. B. Balakirsky, A. J. H. Vinck. Potential Limits on Power-line Communications Over Impulsive Noise Channel [J]. Proc. 7th Int. Symp. Poer-Line Communications and Its Applications-ISPLC 2003, 2003: 32-36
【C04】I. H. Cavdar. Performance Analysis of FSK Power Line Communications Systems over the Time-varying Channels: Measurements and Modeling [J]. IEEE Transactions on Power Delivery, 2004, 19: 111-117
【CB01】R. Cappeletti, A. Baschirotto. A Power Line FSK Transceiver with Reduced Power Consumption [J]. IEEE Transactions on Consumer Electron., 2001, 47:207-213
【CCDE03】F. J. Canete, J. A. Cortes, L. Diez, J. T. Entrambasaguas. Modeling and Evaluation of the Indoor Power Line Channel [J]. IEEE Communications Magazine, 2003, 41: 41-47
【CCDE05】J. A. Cortes, F. J. Canete, L. Diez, J. T. Entrambasaguas. Characterization of the Cyclic Short-time Variation of Indoor Power-line Channels Response [J]. In Proc. Int. Symp. Power Line Communications, 2005: 326-330
【CCDEC05】F. J. Canete, J. A. Cortes, L. Diez, J. T. Entrambasaguas, J. L. Carmona. Fundamentals of the cyclic short-time variation of indoor power-line channels [J]. In Proc. Symp. Power Line Communications, 2005: 157-161
【CD86】M. H. L. Chan, R. W. Donaldson. Attenuation of Communication Signals on Residential and Commercial Intrabuilding Ppower-distribution Circuits [J]. IEEE Transactions on Electromagnetic Compatibility, 1986, 28(4): 220-230
【CDCR07】F. P. V. Campos, C. A. Duque, A .S. Cerqueira, M. V. Ribeiro. Clustered-COFDM for Broadband PLC Systems, Power Line Communications and Its Applications [J]. ISPLC '07. IEEE International Symposium, 2007: 216-221.
【CDCR07】F. P. V. Campos, C. A. Duque, A. S. Cerqueira, M. V. Ribeiro. Clustered-COFDM for Broadband PLC Systems [J]. Power Line Communication and Its Applications, IEEE International Symposium, 2007: 216-221
【CDS96】L. J. Cimini, B. Daneshrad, N. R. Sollenberger. Clustered OFDM with Transmitter Diversity and Coding [J]. Proceedings IEEE Global Telecommunications Conference, 1996: 703– 707
【CI05】T. Calliacoudas, F. Issa. Multiconductor Trqansmission Lines and Cables Solver and Efficient Simulation Tool for PLC Networks Development [J]. IEEE Transactions on Power Delivery, 2005, 20(2): 646-654
【CR08】F. P. V. Campos, M. V. Ribeiro. Performance Analysis of Clustered-OFDM System with BitLoading Algorithm for Broadband PLC [J]. Power Line Communication and its applications, IEEE International Symposium, 2008: 345-350
【D98】Daidclark. Powerline Communications: Finally Ready for Prime Time? [J]. Computer, 1998, 2(1): 10-11
【ED021】M. Eimmermann, K. Dostert. Analysis and Modeling of Impulsive Noise in Broad-band Powerline Communications [J]. IEEE Transactions on Electr. Compatibility, 2002, 44: 249-258
【ED022】M. Emmenuann, K. Dostert. A Multipath Model for the Powerline Channel [J]. IEEE Transactions On Communications, 2002, 50: 552-559
【FG98】G. J. Foschini, M. J. Gans. On Limits of Wireless Communications in a Fading Enviroment Using Multiple Antennas [J]. Wireless Personal Communications, 1998, 6: 311-335
【FH00】E. H. Frank, J. Holloway. Connecting the Home with a Phone Line Network chip Set [J]. IEEE Micro., 2000, 39(20): 27-37
【FOYK03】H. Furkawa, H. Okada, T. Yamazato, M. Katayama. Signaling Methods for Broadcast Transmission in Power-line Communication Systems [J]. Proc. 7th International Symposium on Power Line Communications and Its Applications-ISPLC 2003, 2003: 185-190
【FT05】G. Filippopoulos, D. Tsanakas. AnalyticalCalculation of Magnetic Field Produced by Electric Power Lines [J]. IEEE Transactions on Power Delivery, 2005, 20(2): 1474-1482
【GAA91】J. J. Gledhill, S. V. Anikhindi, P. A. Avon. The Transmission of Digital Television in the UHF Band Using OFDM [J]. IEEE Int. conf. on Digital Signal Processing in Communications Loughborough, 1991: 175-180
【GB05】S. Galli, T. Banwell. A Novel Approach to the Modeling of the Indoor Power Line Channel—Part I: Circuit Analysis and Companion Model [J]. IEEE Transactions on Power, 2005, 20(2): 655-66.
【GFH03】C. L. Giovaneli, P. Farrell, B. Honary. Improved Space-time Coding Applications for Power Line Channels [J]. Proc. 7th International Symposium on Power Line Communications and Its Applications-ISPLC 2003, 2003: 50-55
【GHC04】S. Gault, W. Hachem, P. Ciblat. Joit Sampling Clock Offset and Channel Estimation for OFDM Signals: CRB and Algorithms [J]. Submitted to IEEE Transactions on Signal Processing, 2004
【GHF05】C. L. Giovaneli, B. Honary, P. Farrell. Space-friquency Coded OFDM System for Multi-wire Power Line Communications [J]. Proc. IEEE International Symposium on Power Line Communications and Its Applications-ISPLC 2005, 2005: 191-195
【GKK08】S. Galli, H. Koga, N. Kodama. Advanced Signal Processing for PLCs: Wavelet-OFDM [J]. Power Line Communications and Its Applications, ISPLC 2008, IEEE International Symposium , 2008: 187-192
【GL04】耿煊,李永辉.低压电力线通信的信道特性分析及模型研究[J].电力系统通信, 2004, (4): 19-21
【GRD04】M. Gotz, M. Rapp, K. Dostert. Power Line Channel Characreristics and Their Effect on Communication System Design [J]. IEEE Communication Magazine, 2004, 42(2): 78-86
【GWZL07】高建波,吴炯星,赵尔沅,乐光新.基于小波提升算法的OFDM系统及其峰均比特性分析[J].电子测量技术, 2007, 30(1): 72-75
【H03】D. Hansen. Review of EMC Main Aspects in Fast PLC Including Some History [J]. Proc. IEEE International Symposium on Electromagnetic Compatibility, 2003: 184-192
【H98】O. G. Hooijen. A Channel Model for the Residential Power Circuit Used as a Digital Communications Medium [J]. IEEE Transactions on Electromagnetic Compatibility, 1998, 40(4): 331-336
【HH00】H. Hrasnica, A. Haidline. Modeling MAC Layer for Powerline Communications Networks[R]. SPIE’s Symposium on Information Technologies 2000 Conference, Internet, Performance and Control of Network Systems, USA, 2000: 161-168
【HLY08】黄润林,龙奕,尹忠科.一种降低OFDM信号峰均功率比的预编码方法[J].声学技术, 2008, 27(6): 884-887
【HRH07】O. C. Hargrave, C. J. Ralston, W. D.Hainsworth. Optimizing Wireless LAN for Longwall Coal Mine Automation [J]. IEEE Transactions on Industry Applications, 43(1): 2007: 111-117
【HS01】C. Hensen, W. Schulz. Time Dependence of the Channel Characteristics of Low Voltage Power-Lines and its Effects on Hardware Implementation [J]. AEüInt.’l J. Electronics and Communications, 2000, 54(1): 23-32.
【HV03】J. Haring, A. Han Vinck. Iterative Ddecoding of Codes over Complex Numbers for Impulsive Noise Channels [J]. IEEE Transactions on Inf. Theory, 2003, 49(5): 1251-1260
【HY03】黄伟,姚善化.矿井移动通信技术难题及解决方案探讨[J].煤矿机械, 2003, (12): 33-36
【HY08】郝维来,杨公训.基于UWB无线通信技术在矿井中的应用研究[J]. 计算机应用研究, 2008, 25(2): 600-602
【ICP01】F. Issa, D. Chatfanjon, A. Pacaud. Outdoor Radlated Emission Assocjated with Power Line Communication Systems [J]. Proc. IEEE International Symposium on EMC, 2001: 521-526
【ISMRKDP02】F. Issa, T. Sartenaer, E. Marthe, F. Rachidi, N. Korovkin, S. Duteau, A. Pacaud. Analysis of Power Line Communication Networks Using a New Approach Based on Scattering Parameters Matrix [J]. Electromagnetic Compatibility, EMC 2002, IEEE International Symposium, 2002, 2: 1043-1047
【IUD07】K. Izumi, D. Umehara, S. Denno. Performance Evaluation of Wavelet OFDM Using ASCET Power Line Communications and Its Applications [J]. ISPLC '07, IEEE International Symposium, 2007: 246-251
【J04】M. Jankiraman. Space-Time Codes and MIMO Systems, Artech House [J]. INC, 2004: 20-28
【JMC06】W. Joseph, Mwangoka,曹志刚.基于自适应MIMO-OFDM调制的超宽带通信系统[J].清华大学学报, 2006, 46(4): 516-518
【JW99】N. John, M. William. Polential Communication Services Using Power Line Carriers and Broadband Intergrated Services Digital Network [J]. IEEE Transactions on Power Dslivery, 1999, 4: 1197-1201
【JZHYQ05】G Jinbo, W Zanji, L. Haifeng, Z Yuming, W Qiaochen. Transmission Characteristics of Low-voltage Distribution Networks in China and its Model [J]. IEEE Transactions on Power Delivery, 2005, 20(2): 1341-1348
【KPMRSABS08】Kovalchik, G. Peter , Matetic, J. Rudy , Smith, K. Adam , Bealko, B. Susan . Application of Prevention through Design for Hearing Loss in the Mining Industry [J]. Journal of Safety Research, 2008, 39(2): 251-254
【KW021】M. Kuhn, A. Wittneben. A New Scalable Decoder for Linear Block Codes with Intersymbol Interference [J]. VCT 2002-Spring, in press.
【KW022】M. Kuhn, A. Wittneben. PLC Enhanced Wireless Access Networks: a Link Level Capacity Consideration [J]. VCT 2002-Spring, in press.
【KW05】M. Kuhn, A. Wittneben. Wireless Relaying with Partial Cooperation Based on Power-line Communication [J]. In Proc. IEEE Workshop Signal Precess, Advances Wireless Communications, 2005: 590-594
【LC02】T. Y. Lim, T. W. Chan. Experimenting Remote Kilowatthour Meter Reading Through Low-voltage Power Lines Dense Housing Estates [J]. IEEE Transactions on Power Delivery, 2002, 17: 708-711
【LCR02】X. Li, A. Chidapol, A. Ritcey. Bit-interleaved Coded Modulation with Iterative Decoding and 8-PSK [J]. IEEE Transactions on Communications, 2002, 50(8): 1250-1256
【LE02】Y. J. Lin, Et al. A Power Line Communication Network Infrastructure for the Smart Home [J]. IEEE Wireless Communications, 2002: 104-111
【LJLA06】L. Luba, M. Jakeman, N. Lefebvre, R. Aseervatham. Mining for Water - Partnering for Sustainable Water Use in Semi-arid Regions [J]. Australasian Institute of Mining and Metallurgy Publication Series, Proceedings of Water in Mining 2006 - Multiple Values of Water, 2006: 199-203
【LL04】吕峰,吕国远.低压电力线通信信道模型[J].电力系统通信, 2004, 12: 30-32
【LLNK03】Y. J. Lin, H. A. Latchman, R. E. Newman, S. Katar. A Comparative Performance Study of Wieless and Power Line Networks [J]. IEEE Communication Magzine, 2003, 41(4): 54-63
【LML03】吕仲瑜,孟力,李璐.低压电力线载波通信中的抗干扰问题[J].电测与仪表, 2003, 6: 36-39
【LS99】Ye Li, N. R. Sollenberger. Clustered OFDM with channel estimation for high rate wireless data [J]. Mobile Multimedia Communications, MoMuC '99, 1999 IEEE International Workshop, 1999: 43-50
【LSL02】卢志忠,孙宏敏,李玉清.低压电力线载波通信信道传输特性分析[J].黑龙江电力, 2002, 6(24): 413-415
【LTW04】N. Laneman, D. Tse, G. Womell. Cooperative Diversity in Wireless Networks: Efficient Protocols and Outage Behavior [J]. IEEE Transactionson Inf. Theory, 2004, 50: 3062-3080
【LWAK00】W. L. Liu, Widmer, H. P. Aldis, J. Kaltenschnee. Nature of Power Line Medium and Design Aspects for Broadband PLC System [J]. Broadband Communications, Proceedings, 2000 International Zurich Seminar. 2000: 185-189
【LWW03】刘恒,汪光森,王乘. OFDM、扩频通信技术在电力线通信中的应用分析与仿真[J].继电器, 2003, 6: 43-46
【LYL05】刘志煌,余永权,刘滔.在扩频中引入OFDM实现PLC通信方案[J].计算机工程与设计, 2005, 26(3): 716-718
【M77】D. Middleton. Statistical-Physical Models of Electro-magnetic Interference [J]. IEEE Transactions on Electromagnetic Compatibility, 1977, 19(3): 106-126
【M96】B. Mulgrew. Applying Radial Basis Functions [J]. IEEE Signal Process Magazine, 1996, 13: 50-65
【MCGLSGL04】H. Meng, S. Chen, Y. L. Guan, C. L. Law, P. L. So, E. Gunawan, T. T. Lie. Modeling of Transfer Characteristics for the Broadband Power LineCommunication Channel [J]. IEEE Transactions on Power Delivery, 2004, 19(3): 1057-1064
【MCR86】H. Morgan, L. Chan, W. Robert. Attenuation of Communication Signals on Residential and Commercial Intra-building Power-distribution Circuits [J]. IEEE Transactions on Electromagnetic Compatibility, 1986, 28(4): 220-230
【MD98】S. L. Miller, R. J. Dea. Peak Power and Bandwith Efficient Linear Modulation [J]. IEEE Transactions on Communication, 1998, 46: 1639-1648
【MRIZ02】E. Marthe, F. Rachidi, M. Ianoz, P. Zweiacker. Indoor Radiated Emission Associated with Power Line Communication System [J]. Proc. IEEE International Symposium on EMC, 2002: 517-520
【MSMS08】R. Mohseni, A. Sheikhi, M. Masnadi, A. Shirazi. Wavelet packet based OFDM radar signals [J]. Radar, 2008 International Conference , 2008: 552-557
【MUKM02】H. Matsuo, D. Umehara, M. Kawai, Y. Morihiro. An Iterative Detection for OFDM over Impulsive Noise Channel [J]. Proc. of the 2002 Int. Symp. on PLC and its Applications, 2002: 213-217
【N98】Newbury. Communications Requirements and Standards and for Low Votlage Signaling [J]. IEEE Transactions on Power Delivery, 1998, 13: 46-52
【NB06】H. H. Nguyen, T. Q. Bui. Bit-interleaved Coded Modulation with Iterative Decoding in Impulsive Noise [J]. Presented at the Int. Symp. Powerline Communications, 2006
【NM01】J. Newbury, W. Miller. Multiprotocol Routing for Automaticremote Meter Reading Using Power Line Carrier Systems [J]. IEEE Transactions on Power Delivery, 2001, 16: 1-5
【NM73】J. R. Nicboson, J. A. Malack. Impedance of Power Lines and Line Impedance Stabilization Networks in Conducted Interference Measurements [J]. IEEE Transactions on EMC, 1973: 84-86
【NOBP03】R. U. Nabar, O. Oyman, H. Bolcsket, A. Paulraj. Capacity Scaling Laws in MIMO Wireless Networks [J]. In Proc. Allerton Conf. Communications, Control andComp., 2003: 378-389
【NP99】R. V. Nee, R. Prasad. OFDM Wireless Multimedia Communication [J]. Artech House, 1999
【OD93】J. O. Onunga, R. W. Donaldson. A Simple Packet Retransmission Strategy for Throughput and Delay Enhancement on Power Line Communication Channels [J]. IEEE Transactions on Power Delivery, 1993, 8(3): 818-826
【OWP08】O. Obst, X. R.Wang, M. Prokopenko. Using Echo State Networks for Anomaly Detection in Underground Coal Mines [J]. Proceedings-2008 International Conference on Information Processing in Sensor Networks, IPSN 2008, 2008: 219-229
【P00】PALAS. State of the Art and Initial Analysis of PLC Services [J]. Netherlands, ENC Energy, 2000
【P67】B. D. Pritchmon. A Binary Channel Charecterization Using Partioned Markov Chains [J]. IEEE Transactions on Insform. Theory, 1967, 13(2): 221-227
【P99】H. Philipps. Modelling of Powerline Communication Channels [J]. Proc. 3rd Int.’l Symp. Power-Line Communications and its Applications, ancaster, UK, 1999: 14-21.
【PCKT03】I. C. Papaleonidoulos, C. N. Capsalis, C. G. Karagiannopoulos, N. J. Theodorou. Statistical Analysis and Simulation of Indoor Single-phase Low Voltage Power-line Communication Channels on the Basis of Multipath Propagation [J]. IEEE Transactions on Consum. Electron., 2003, 49: 89-99
【PHYH03】N. Pavlidou, A. J. Han Vinck, J. Yazdani, B. Honary. Power Line Communications: State of the Art and Future Trends [J]. IEEE Communications Magazine, 2003, 41(4): 34-40
【PKTC05】I. C. Papaleonidopoulos, C. G. Karagianopoulos, N. J. Theodorou, C. N. Capsalis. Theoretical Transmission-Line Study of Symmetrical Indoor Triple-Pole Cables for Single-Phase HF Signalling [J]. IEEE Transactions on Power Delivery, 2005, 20(4): 2429-2436
【PPDTD05】G. K. Papagiannis, T. A. Papadopoulos, C. D. Dovas, D. A. Tsiamitros,P. S. Dokopoulos. A PLC Based Energy Consumption Management System [J]. Power Line Performance Analysis: Field Tests and Simulation Results, Proc. 2005 IEEE Power Tech. Conf., St. Petersburg, 2005
【PR80】Peled, A. Ruiz. Frequecy Domain Data Transmission Using Reduced Computational Complexity Models [J]. In Proc. IC-ASSP, 1980: 964-967
【QZ08】钱璟,张申如. FFH-OFDM预编码矩阵的分析和改进[J].电路与系统学报, 2008, 13(6): 133-135
【R96】D. Radford. Spread-Spectrum Data Through AC Power Writing [J]. IEEE Spectrum, 1996, 33(11): 48-53
【RA99】S. Ramseler, M. Arzberger. A Houser Transmission and Distribution Conference [C]. IEEE, 1999, (1):235-239
【S72】A. Smith. A Power Line Noise Servey [J]. IEEE Transactions on Electromagnetic Compatibility, 1972, 14(1): 31-32
【SBM05】D. Sabolic, A. Bazant, R. Malaric. Signal Propagation Modeling in Power-Line Communication Networks [J]. IEEE Transactions on Power Delivery, 2005, 20(4): 2429-2436
【SC97】T. M. Schmidl, D. C. Cox. Robust Frequency and Timing Synchronization for OFDM [J]. IEEE Transactions on communications, 1997, 45(12): 1613-1621
【SEA03】A. Sendonaris, E. Erkip, B. Aazhang. User Cooperation Diversity-Part I and II [J]. IEEE Transactions on Communications, 2003: 1927-1948
【SLZS02】孙继平,刘云,赵睿,孙祖宇.用低比特率传输井下视频图像的一种方法[J].煤炭科学技术, 2002, 30(7): 22-24
【SS01】K. Sridharan, N. N. Schulz. Outage Management Through AMR Systems Using an Intelligent Data Filter [J]. IEEE Transactions on Power Delivery, 2001, 16: 669-675
【SWCO04】P. Svedman, S. K. Wilson, L. J. Cimini, B. Ottersten. A Simplified Opportunistic Feedback and Scheduling Scheme for OFDM [J]. Proceedings IEEE Vehicular Technology Conference, 2004
【T05】M. Tokuda. Technical Trends in High-Speed Power Line Communication [J]. IEICE Transactions on Communications, 2005, E88-B(8)
【T88】M. Tanaka. High Frequency Noise Power Spectrum, Impedance and Transmission Loss of Power Line Communications [J]. IEEE Transactions on Consumer Electronics, 1988, 34(2): 321-326
【T89】M. Tanaka. Transmission Characteristics of a Power Line Used for Data Communication at High Frequencies [J]. IEEE Transactions on Consumer Electronics, 1989, 35(1): 37-42
【T99】E. Telatar. Capacity of Multi-antenna Gaussian Channels [J]. European Transactions of Telecommunications, 1999, 10: 585-595
【TRG03】F. Tlili, F. Rouissi, A. Ghazel. Precoded OFDM for Power Line Broadband Communication [J]. IEEE Circiuts and systems, 2003, 2: 109-112
【TSGGCL03】L. T. Tang, P. L. So, E. Gunawan, Y. L. Guan, S. Chen, T. T. Lie. Characterization and Modeling of In-building Power Lines for High-speed Data Transmission [J]. IEEE Transactions on Power Delivery, 2003, 18: 69-77
【W00】H. P. Widmer. On the Global EMC Aspect of Broadband Power Line Communications Using HF the HF Frequency Band [J]. IZS’2000
【W04】魏子木.井下移动通信[J].煤炭技术, 2004, 23(5): 33-34
【WE71】S. B. Weinstein, P. M. Ebert. Data Transmission by Frequency Division Multiplexing Using the Discrete Fouriertransform [J]. IEEE Transactions on communications, 1971, 19(5): 628-634
【WGALY04】Y. Wang, J. H. Ge, B. Ai, P. Liu, S. Yang. A Soft Decision Deloding Scheme for Wireless COFDM with Application to DVB-T [J]. IEEE Transactions on Consumer electronics, 2004, 50(1): 84-88
【WS98】N. Weste, D. J. Skellem. VISI for OFDM [J]. IEEE Communication magazine, 1998, 36(10): 127-134
【WSCJT07】温晓龙,宋存义,崔巍,金龙哲, Tim folsom.盛沟煤矿综合无线通信系统的设计与应用[J].煤炭学报, 2007, 32(11): 1211-1215
【WVVWS05】P. A. A. F. Wouters, P. C. J. M. V. Wielen, J. Veen, P. Wagenaars, E. F. Steennis. Effect of Cable Load Impedance on Coupling Schemes for MV Power Line Communication [J]. IEEE Transactions on Power Delivery, 2005, 20(2): 633-645
【WWYZ06】王文星,王文华,杨公训,张榛楠.基于OFDM的低压电力线衰落信道的研究及应用[J].煤炭科学技术, 2006, 34(7): 43-45
【WXZ01】吴明捷,徐丽洁,张克.直接序列扩频通信在煤矿井下移动通信中的应用[J].煤矿自动化, 2001, 3: 6-8
【WZZ02】吴明捷,张克,张威.扩频通信在煤矿井下通信和安全中的应用[J].煤炭学报, 2002, 27(1): 88-91
【YL04】J. Y. Yeun, H. Lee. A Bandwidth Efficient Precode to Reduce Inter-carrier Interference in OFDM [J]. IEEE VTC2004 Spring, Milan, Italy, 2004, 2: 944-946
【YM03】虞华艳,毛德祥. OFDM实现低压电力线高速数据通信[J].继电器, 2003, 12(31): 23-26
【YY07】俞菲,杨绿溪. OFDM系统中基于载波干扰比最大的预编码方案[J].电子与信息学报, 2007, 29(4): 880-883
【Z00】M. Zimmermann. Energiverteilnetze als Zugangsmedium for Telekommunikationsdlenste, Dissertation, published by Shaker, 2000
【ZC05】赵青梅,陈湘源.上湾煤矿井下无线通信系统PAS研究[J].煤炭工程, 2005, (2): 44-46
【ZCHX02】张有兵,程时杰,何海波,熊兰, J Niguimbis.低压电力线高频载波通信信道的建模研究[J].电力系统自动化, 2002, 26(23): 1-5
【ZCX03】张有兵,程时杰,熊兰.基于低压电力线实测信道特性的OFDM分析和仿真[J].电力系统自动化, 2003, 27(11): 16-22
【ZD001】M. Zimmerman, K. Dostert. The Low Voltage Power Distribution Network as Last Mile Access Network-Signal Propagation and Noise Scenarios in the HF-Range [J]. Int. J. Electron. Commununications (AEU), 2000, 54(1): 131-138
【ZD002】M. Zimmermann, K. Dostert. An Analysis of the Broadband Noise Scenario in Powerline Networks [J]. Proceedings of the 4th International Symposium onPower-line Communications and Applications, Ireland, 2000: 131-138
【ZD003】M. Zimmermann, K. Dostert. Analysis and modeling of impulsive noise in broad-band powerline communications [J]. IEEE Transactions on Electromagn Compart, 2000, 44(1): 249-257
【ZD021】M. Zimmermann, K. Dostert. A Multipath Model for the Power line Channel [J]. IEEE Transactions on Communications, 2002, 50(4): 553-59.
【ZD022】M. Zimmermann, K. L. Dostert. Analysis and Modeling of Impulsive Noise in Broad-Band Powerline Communications [J]. IEEE Transactions on Electromagnetic Compatibility, 2002, 44(1): 249-258
【ZDW02】张申,丁恩杰,武增.煤矿井下综合数字网网络结构的研究[J].煤炭学报, 2002, 27(2): 206-210
【ZH01】Zhao Yuping, S.G. Haggman. Intercarrier interference self-cancellation scheme for OFDM mobile communication systems [J]. IEEE Trans. on Communications, 2001, 49(7): 1185-1191
【ZH02】张有兵,何海波等.低压电力线载波通信中信道模型的研究[J].继电器, 2002, 30(5): 20-24
【ZJXZ03】赵云峰,江晓岩,徐立中,赵明宇.低压电力线噪声分析与建模[J].电力系统通信, 2003, 1: 31-34
【ZLY00】赵洪山,刘立丰,杨奇逊.低压电力线扩频载波通信方案[J].电力系统自动化, 2000, 12(24): 49-52
【ZTZL08】L. Zbydniewski, P. Turcza, T. Zielinski, J. P. Lopez. Performance Analysis of Uncoded/coded Windowed-OFDM and Circular Wavelet-OFDM Transmission in PLC Channel with Bit-loading. Signals and Electronic Systems [J]. ICSES '08, International Conference, 2008: 423-426
【ZYMZ03】张圣清,于东海,马建旭,邹采荣.低压电力线通信信道噪声特性的测试与分析[J].电力系统通信, 2003, (1): 35-38
【A99】J. Armstrong. Analysis of New and Existing Methods of Reducing Inter-carrier Interference Due to Carrier Frequency Offset in OFDM [J]. IEEE Transactions on Communications, 1999, 47(3): 365-369
【AA05】D. Anastasiadou, T. Antonakopoulos. Multipath Characterization of Indoor Power-line Networks [J]. IEEE Transactions on Power Delivery, 2005, 20(1): 90-99
【ABCR05】R. Araneo, S. Barmada, S. Celozzi, M. Raugi. Two Port Equivalent for PCB Discontinuities in the Wavelet Domain [J]. IEEE Transactions on Microw. Theory Technology, 2005, 53(3): 907-918.
【ANK06】P. Amirshahi, S. M. Navidpour, M. Kavehrad. Performance Analysis of Uncoded and Coded OFDM Broadband Transmission over Low Voltage Power-line Channels with Impulsive Noise [J]. IEEE Transactions on Power Delivery, 2006, 21: 1927-1934
【B00】S. Ten Brink. Designing Iterative Decoding Schemse with the Extrinsic Trinsic Information Transfer Chart [J]. AEU Int. J. Elect. Communications, 2000, 54: 389-398
【B01】S. T. Brink. Convergence Behavior of Iteratively Decoded Pparallel Concatenated Codes [J]. IEEE Transactions on Communication, 2001, 49(10): 1727-1737
【B98】J. Bames. A Physical Multi-path Model for Power Distribution Network Propagation [C]. In proc. 1998 Int. Symp., Powerline Communications and Its Applications, Tokyo, Japan, 1998: 76-89
【BA90】J. Bingham, A.C. Multicarrier Modulation for Data Transmission An Idea Whose Time Has Come [J]. IEEE Communications Magazine, 1990: 5-1
【BE99】J. V. Beek, Et. al. A Time and Frequency Synchronization Scheme forMultiuser OFDM [J]. IEEE Journal on Selected Areas in Communications, 1999: 1900– 1914
【BHDB05】M. Babic, M. Hagenau, K. Dostert, J. Bausch. OPERA Deliverable D4: Theoretical Postulation of PLC Channel Model [J]. 2005.
【BMR06】S. Barmada, A. Musolino, M. Raugi. Innovative Model for Time-varying Power Line Communication Channel Response Evaluation [J]. Selected Areas in Communications, IEEE Journal, 2006, 24(7): 1317-1326
【BR00】S. Barmada, M. Raugi. Transient Numerical Solution of Nonuniform MTL Equations with Nonlinear Loads by Wavelet Expansion in Time or Space Domain [J]. IEEE Transactions on Circuits and Systems, 2000, 47(8): 1178-1190
【BRM06】S. Barmada, M. Raugi, A. Musolino. Innovative Model for Time-Varying Power Line Communication Channel Response Evaluation [J]. IEEE Journal on Selected Areas in Communications, 2006, 24(7): 1317-1326
【BRMT07】S. Barmada, M. Raugi, A. Musolino, M. Tucci. Analysis of Power Lines Uncertain Parameter Influence on Power Line Communications [J]. IEEE Transactions on Power Delivery, 2007, 22(4): 2163-2171
【BV00】T. Bostoen, O. Van Wiel. Modeling the Low-voltage Power Distribution Network in the Frequency Band From 0.5MHz to 30MHz for Broadband Power Line Communication (PLC) [J]. In Proc. Int. Zurich Semina Broadband Communications, Zurich Switzerland, 2000: 171-178
【BV03】V. B. Balakirsky, A. J. H. Vinck. Potential Limits on Power-line Communications Over Impulsive Noise Channel [J]. Proc. 7th Int. Symp. Poer-Line Communications and Its Applications-ISPLC 2003, 2003: 32-36
【C04】I. H. Cavdar. Performance Analysis of FSK Power Line Communications Systems over the Time-varying Channels: Measurements and Modeling [J]. IEEE Transactions on Power Delivery, 2004, 19: 111-117
【CB01】R. Cappeletti, A. Baschirotto. A Power Line FSK Transceiver with Reduced Power Consumption [J]. IEEE Transactions on Consumer Electron., 2001, 47:207-213
【CCDE03】F. J. Canete, J. A. Cortes, L. Diez, J. T. Entrambasaguas. Modeling and Evaluation of the Indoor Power Line Channel [J]. IEEE Communications Magazine, 2003, 41: 41-47
【CCDE05】J. A. Cortes, F. J. Canete, L. Diez, J. T. Entrambasaguas. Characterization of the Cyclic Short-time Variation of Indoor Power-line Channels Response [J]. In Proc. Int. Symp. Power Line Communications, 2005: 326-330
【CCDEC05】F. J. Canete, J. A. Cortes, L. Diez, J. T. Entrambasaguas, J. L. Carmona. Fundamentals of the cyclic short-time variation of indoor power-line channels [J]. In Proc. Symp. Power Line Communications, 2005: 157-161
【CD86】M. H. L. Chan, R. W. Donaldson. Attenuation of Communication Signals on Residential and Commercial Intrabuilding Ppower-distribution Circuits [J]. IEEE Transactions on Electromagnetic Compatibility, 1986, 28(4): 220-230
【CDCR07】F. P. V. Campos, C. A. Duque, A .S. Cerqueira, M. V. Ribeiro. Clustered-COFDM for Broadband PLC Systems, Power Line Communications and Its Applications [J]. ISPLC '07. IEEE International Symposium, 2007: 216-221.
【CDCR07】F. P. V. Campos, C. A. Duque, A. S. Cerqueira, M. V. Ribeiro. Clustered-COFDM for Broadband PLC Systems [J]. Power Line Communication and Its Applications, IEEE International Symposium, 2007: 216-221
【CDS96】L. J. Cimini, B. Daneshrad, N. R. Sollenberger. Clustered OFDM with Transmitter Diversity and Coding [J]. Proceedings IEEE Global Telecommunications Conference, 1996: 703– 707
【CI05】T. Calliacoudas, F. Issa. Multiconductor Trqansmission Lines and Cables Solver and Efficient Simulation Tool for PLC Networks Development [J]. IEEE Transactions on Power Delivery, 2005, 20(2): 646-654
【CR08】F. P. V. Campos, M. V. Ribeiro. Performance Analysis of Clustered-OFDM System with BitLoading Algorithm for Broadband PLC [J]. Power Line Communication and its applications, IEEE International Symposium, 2008: 345-350
【D98】Daidclark. Powerline Communications: Finally Ready for Prime Time? [J]. Computer, 1998, 2(1): 10-11
【ED021】M. Eimmermann, K. Dostert. Analysis and Modeling of Impulsive Noise in Broad-band Powerline Communications [J]. IEEE Transactions on Electr. Compatibility, 2002, 44: 249-258
【ED022】M. Emmenuann, K. Dostert. A Multipath Model for the Powerline Channel [J]. IEEE Transactions On Communications, 2002, 50: 552-559
【FG98】G. J. Foschini, M. J. Gans. On Limits of Wireless Communications in a Fading Enviroment Using Multiple Antennas [J]. Wireless Personal Communications, 1998, 6: 311-335
【FH00】E. H. Frank, J. Holloway. Connecting the Home with a Phone Line Network chip Set [J]. IEEE Micro., 2000, 39(20): 27-37
【FOYK03】H. Furkawa, H. Okada, T. Yamazato, M. Katayama. Signaling Methods for Broadcast Transmission in Power-line Communication Systems [J]. Proc. 7th International Symposium on Power Line Communications and Its Applications-ISPLC 2003, 2003: 185-190
【FT05】G. Filippopoulos, D. Tsanakas. AnalyticalCalculation of Magnetic Field Produced by Electric Power Lines [J]. IEEE Transactions on Power Delivery, 2005, 20(2): 1474-1482
【GAA91】J. J. Gledhill, S. V. Anikhindi, P. A. Avon. The Transmission of Digital Television in the UHF Band Using OFDM [J]. IEEE Int. conf. on Digital Signal Processing in Communications Loughborough, 1991: 175-180
【GB05】S. Galli, T. Banwell. A Novel Approach to the Modeling of the Indoor Power Line Channel—Part I: Circuit Analysis and Companion Model [J]. IEEE Transactions on Power, 2005, 20(2): 655-66.
【GFH03】C. L. Giovaneli, P. Farrell, B. Honary. Improved Space-time Coding Applications for Power Line Channels [J]. Proc. 7th International Symposium on Power Line Communications and Its Applications-ISPLC 2003, 2003: 50-55
【GHC04】S. Gault, W. Hachem, P. Ciblat. Joit Sampling Clock Offset and Channel Estimation for OFDM Signals: CRB and Algorithms [J]. Submitted to IEEE Transactions on Signal Processing, 2004
【GHF05】C. L. Giovaneli, B. Honary, P. Farrell. Space-friquency Coded OFDM System for Multi-wire Power Line Communications [J]. Proc. IEEE International Symposium on Power Line Communications and Its Applications-ISPLC 2005, 2005: 191-195
【GKK08】S. Galli, H. Koga, N. Kodama. Advanced Signal Processing for PLCs: Wavelet-OFDM [J]. Power Line Communications and Its Applications, ISPLC 2008, IEEE International Symposium , 2008: 187-192
【GL04】耿煊,李永辉.低压电力线通信的信道特性分析及模型研究[J].电力系统通信, 2004, (4): 19-21
【GRD04】M. Gotz, M. Rapp, K. Dostert. Power Line Channel Characreristics and Their Effect on Communication System Design [J]. IEEE Communication Magazine, 2004, 42(2): 78-86
【GWZL07】高建波,吴炯星,赵尔沅,乐光新.基于小波提升算法的OFDM系统及其峰均比特性分析[J].电子测量技术, 2007, 30(1): 72-75
【H03】D. Hansen. Review of EMC Main Aspects in Fast PLC Including Some History [J]. Proc. IEEE International Symposium on Electromagnetic Compatibility, 2003: 184-192
【H98】O. G. Hooijen. A Channel Model for the Residential Power Circuit Used as a Digital Communications Medium [J]. IEEE Transactions on Electromagnetic Compatibility, 1998, 40(4): 331-336
【HH00】H. Hrasnica, A. Haidline. Modeling MAC Layer for Powerline Communications Networks[R]. SPIE’s Symposium on Information Technologies 2000 Conference, Internet, Performance and Control of Network Systems, USA, 2000: 161-168
【HLY08】黄润林,龙奕,尹忠科.一种降低OFDM信号峰均功率比的预编码方法[J].声学技术, 2008, 27(6): 884-887
【HRH07】O. C. Hargrave, C. J. Ralston, W. D.Hainsworth. Optimizing Wireless LAN for Longwall Coal Mine Automation [J]. IEEE Transactions on Industry Applications, 43(1): 2007: 111-117
【HS01】C. Hensen, W. Schulz. Time Dependence of the Channel Characteristics of Low Voltage Power-Lines and its Effects on Hardware Implementation [J]. AEüInt.’l J. Electronics and Communications, 2000, 54(1): 23-32.
【HV03】J. Haring, A. Han Vinck. Iterative Ddecoding of Codes over Complex Numbers for Impulsive Noise Channels [J]. IEEE Transactions on Inf. Theory, 2003, 49(5): 1251-1260
【HY03】黄伟,姚善化.矿井移动通信技术难题及解决方案探讨[J].煤矿机械, 2003, (12): 33-36
【HY08】郝维来,杨公训.基于UWB无线通信技术在矿井中的应用研究[J]. 计算机应用研究, 2008, 25(2): 600-602
【ICP01】F. Issa, D. Chatfanjon, A. Pacaud. Outdoor Radlated Emission Assocjated with Power Line Communication Systems [J]. Proc. IEEE International Symposium on EMC, 2001: 521-526
【ISMRKDP02】F. Issa, T. Sartenaer, E. Marthe, F. Rachidi, N. Korovkin, S. Duteau, A. Pacaud. Analysis of Power Line Communication Networks Using a New Approach Based on Scattering Parameters Matrix [J]. Electromagnetic Compatibility, EMC 2002, IEEE International Symposium, 2002, 2: 1043-1047
【IUD07】K. Izumi, D. Umehara, S. Denno. Performance Evaluation of Wavelet OFDM Using ASCET Power Line Communications and Its Applications [J]. ISPLC '07, IEEE International Symposium, 2007: 246-251
【J04】M. Jankiraman. Space-Time Codes and MIMO Systems, Artech House [J]. INC, 2004: 20-28
【JMC06】W. Joseph, Mwangoka,曹志刚.基于自适应MIMO-OFDM调制的超宽带通信系统[J].清华大学学报, 2006, 46(4): 516-518
【JW99】N. John, M. William. Polential Communication Services Using Power Line Carriers and Broadband Intergrated Services Digital Network [J]. IEEE Transactions on Power Dslivery, 1999, 4: 1197-1201
【JZHYQ05】G Jinbo, W Zanji, L. Haifeng, Z Yuming, W Qiaochen. Transmission Characteristics of Low-voltage Distribution Networks in China and its Model [J]. IEEE Transactions on Power Delivery, 2005, 20(2): 1341-1348
【KPMRSABS08】Kovalchik, G. Peter , Matetic, J. Rudy , Smith, K. Adam , Bealko, B. Susan . Application of Prevention through Design for Hearing Loss in the Mining Industry [J]. Journal of Safety Research, 2008, 39(2): 251-254
【KW021】M. Kuhn, A. Wittneben. A New Scalable Decoder for Linear Block Codes with Intersymbol Interference [J]. VCT 2002-Spring, in press.
【KW022】M. Kuhn, A. Wittneben. PLC Enhanced Wireless Access Networks: a Link Level Capacity Consideration [J]. VCT 2002-Spring, in press.
【KW05】M. Kuhn, A. Wittneben. Wireless Relaying with Partial Cooperation Based on Power-line Communication [J]. In Proc. IEEE Workshop Signal Precess, Advances Wireless Communications, 2005: 590-594
【LC02】T. Y. Lim, T. W. Chan. Experimenting Remote Kilowatthour Meter Reading Through Low-voltage Power Lines Dense Housing Estates [J]. IEEE Transactions on Power Delivery, 2002, 17: 708-711
【LCR02】X. Li, A. Chidapol, A. Ritcey. Bit-interleaved Coded Modulation with Iterative Decoding and 8-PSK [J]. IEEE Transactions on Communications, 2002, 50(8): 1250-1256
【LE02】Y. J. Lin, Et al. A Power Line Communication Network Infrastructure for the Smart Home [J]. IEEE Wireless Communications, 2002: 104-111
【LJLA06】L. Luba, M. Jakeman, N. Lefebvre, R. Aseervatham. Mining for Water - Partnering for Sustainable Water Use in Semi-arid Regions [J]. Australasian Institute of Mining and Metallurgy Publication Series, Proceedings of Water in Mining 2006 - Multiple Values of Water, 2006: 199-203
【LL04】吕峰,吕国远.低压电力线通信信道模型[J].电力系统通信, 2004, 12: 30-32
【LLNK03】Y. J. Lin, H. A. Latchman, R. E. Newman, S. Katar. A Comparative Performance Study of Wieless and Power Line Networks [J]. IEEE Communication Magzine, 2003, 41(4): 54-63
【LML03】吕仲瑜,孟力,李璐.低压电力线载波通信中的抗干扰问题[J].电测与仪表, 2003, 6: 36-39
【LS99】Ye Li, N. R. Sollenberger. Clustered OFDM with channel estimation for high rate wireless data [J]. Mobile Multimedia Communications, MoMuC '99, 1999 IEEE International Workshop, 1999: 43-50
【LSL02】卢志忠,孙宏敏,李玉清.低压电力线载波通信信道传输特性分析[J].黑龙江电力, 2002, 6(24): 413-415
【LTW04】N. Laneman, D. Tse, G. Womell. Cooperative Diversity in Wireless Networks: Efficient Protocols and Outage Behavior [J]. IEEE Transactionson Inf. Theory, 2004, 50: 3062-3080
【LWAK00】W. L. Liu, Widmer, H. P. Aldis, J. Kaltenschnee. Nature of Power Line Medium and Design Aspects for Broadband PLC System [J]. Broadband Communications, Proceedings, 2000 International Zurich Seminar. 2000: 185-189
【LWW03】刘恒,汪光森,王乘. OFDM、扩频通信技术在电力线通信中的应用分析与仿真[J].继电器, 2003, 6: 43-46
【LYL05】刘志煌,余永权,刘滔.在扩频中引入OFDM实现PLC通信方案[J].计算机工程与设计, 2005, 26(3): 716-718
【M77】D. Middleton. Statistical-Physical Models of Electro-magnetic Interference [J]. IEEE Transactions on Electromagnetic Compatibility, 1977, 19(3): 106-126
【M96】B. Mulgrew. Applying Radial Basis Functions [J]. IEEE Signal Process Magazine, 1996, 13: 50-65
【MCGLSGL04】H. Meng, S. Chen, Y. L. Guan, C. L. Law, P. L. So, E. Gunawan, T. T. Lie. Modeling of Transfer Characteristics for the Broadband Power LineCommunication Channel [J]. IEEE Transactions on Power Delivery, 2004, 19(3): 1057-1064
【MCR86】H. Morgan, L. Chan, W. Robert. Attenuation of Communication Signals on Residential and Commercial Intra-building Power-distribution Circuits [J]. IEEE Transactions on Electromagnetic Compatibility, 1986, 28(4): 220-230
【MD98】S. L. Miller, R. J. Dea. Peak Power and Bandwith Efficient Linear Modulation [J]. IEEE Transactions on Communication, 1998, 46: 1639-1648
【MRIZ02】E. Marthe, F. Rachidi, M. Ianoz, P. Zweiacker. Indoor Radiated Emission Associated with Power Line Communication System [J]. Proc. IEEE International Symposium on EMC, 2002: 517-520
【MSMS08】R. Mohseni, A. Sheikhi, M. Masnadi, A. Shirazi. Wavelet packet based OFDM radar signals [J]. Radar, 2008 International Conference , 2008: 552-557
【MUKM02】H. Matsuo, D. Umehara, M. Kawai, Y. Morihiro. An Iterative Detection for OFDM over Impulsive Noise Channel [J]. Proc. of the 2002 Int. Symp. on PLC and its Applications, 2002: 213-217
【N98】Newbury. Communications Requirements and Standards and for Low Votlage Signaling [J]. IEEE Transactions on Power Delivery, 1998, 13: 46-52
【NB06】H. H. Nguyen, T. Q. Bui. Bit-interleaved Coded Modulation with Iterative Decoding in Impulsive Noise [J]. Presented at the Int. Symp. Powerline Communications, 2006
【NM01】J. Newbury, W. Miller. Multiprotocol Routing for Automaticremote Meter Reading Using Power Line Carrier Systems [J]. IEEE Transactions on Power Delivery, 2001, 16: 1-5
【NM73】J. R. Nicboson, J. A. Malack. Impedance of Power Lines and Line Impedance Stabilization Networks in Conducted Interference Measurements [J]. IEEE Transactions on EMC, 1973: 84-86
【NOBP03】R. U. Nabar, O. Oyman, H. Bolcsket, A. Paulraj. Capacity Scaling Laws in MIMO Wireless Networks [J]. In Proc. Allerton Conf. Communications, Control andComp., 2003: 378-389
【NP99】R. V. Nee, R. Prasad. OFDM Wireless Multimedia Communication [J]. Artech House, 1999
【OD93】J. O. Onunga, R. W. Donaldson. A Simple Packet Retransmission Strategy for Throughput and Delay Enhancement on Power Line Communication Channels [J]. IEEE Transactions on Power Delivery, 1993, 8(3): 818-826
【OWP08】O. Obst, X. R.Wang, M. Prokopenko. Using Echo State Networks for Anomaly Detection in Underground Coal Mines [J]. Proceedings-2008 International Conference on Information Processing in Sensor Networks, IPSN 2008, 2008: 219-229
【P00】PALAS. State of the Art and Initial Analysis of PLC Services [J]. Netherlands, ENC Energy, 2000
【P67】B. D. Pritchmon. A Binary Channel Charecterization Using Partioned Markov Chains [J]. IEEE Transactions on Insform. Theory, 1967, 13(2): 221-227
【P99】H. Philipps. Modelling of Powerline Communication Channels [J]. Proc. 3rd Int.’l Symp. Power-Line Communications and its Applications, ancaster, UK, 1999: 14-21.
【PCKT03】I. C. Papaleonidoulos, C. N. Capsalis, C. G. Karagiannopoulos, N. J. Theodorou. Statistical Analysis and Simulation of Indoor Single-phase Low Voltage Power-line Communication Channels on the Basis of Multipath Propagation [J]. IEEE Transactions on Consum. Electron., 2003, 49: 89-99
【PHYH03】N. Pavlidou, A. J. Han Vinck, J. Yazdani, B. Honary. Power Line Communications: State of the Art and Future Trends [J]. IEEE Communications Magazine, 2003, 41(4): 34-40
【PKTC05】I. C. Papaleonidopoulos, C. G. Karagianopoulos, N. J. Theodorou, C. N. Capsalis. Theoretical Transmission-Line Study of Symmetrical Indoor Triple-Pole Cables for Single-Phase HF Signalling [J]. IEEE Transactions on Power Delivery, 2005, 20(4): 2429-2436
【PPDTD05】G. K. Papagiannis, T. A. Papadopoulos, C. D. Dovas, D. A. Tsiamitros,P. S. Dokopoulos. A PLC Based Energy Consumption Management System [J]. Power Line Performance Analysis: Field Tests and Simulation Results, Proc. 2005 IEEE Power Tech. Conf., St. Petersburg, 2005
【PR80】Peled, A. Ruiz. Frequecy Domain Data Transmission Using Reduced Computational Complexity Models [J]. In Proc. IC-ASSP, 1980: 964-967
【QZ08】钱璟,张申如. FFH-OFDM预编码矩阵的分析和改进[J].电路与系统学报, 2008, 13(6): 133-135
【R96】D. Radford. Spread-Spectrum Data Through AC Power Writing [J]. IEEE Spectrum, 1996, 33(11): 48-53
【RA99】S. Ramseler, M. Arzberger. A Houser Transmission and Distribution Conference [C]. IEEE, 1999, (1):235-239
【S72】A. Smith. A Power Line Noise Servey [J]. IEEE Transactions on Electromagnetic Compatibility, 1972, 14(1): 31-32
【SBM05】D. Sabolic, A. Bazant, R. Malaric. Signal Propagation Modeling in Power-Line Communication Networks [J]. IEEE Transactions on Power Delivery, 2005, 20(4): 2429-2436
【SC97】T. M. Schmidl, D. C. Cox. Robust Frequency and Timing Synchronization for OFDM [J]. IEEE Transactions on communications, 1997, 45(12): 1613-1621
【SEA03】A. Sendonaris, E. Erkip, B. Aazhang. User Cooperation Diversity-Part I and II [J]. IEEE Transactions on Communications, 2003: 1927-1948
【SLZS02】孙继平,刘云,赵睿,孙祖宇.用低比特率传输井下视频图像的一种方法[J].煤炭科学技术, 2002, 30(7): 22-24
【SS01】K. Sridharan, N. N. Schulz. Outage Management Through AMR Systems Using an Intelligent Data Filter [J]. IEEE Transactions on Power Delivery, 2001, 16: 669-675
【SWCO04】P. Svedman, S. K. Wilson, L. J. Cimini, B. Ottersten. A Simplified Opportunistic Feedback and Scheduling Scheme for OFDM [J]. Proceedings IEEE Vehicular Technology Conference, 2004
【T05】M. Tokuda. Technical Trends in High-Speed Power Line Communication [J]. IEICE Transactions on Communications, 2005, E88-B(8)
【T88】M. Tanaka. High Frequency Noise Power Spectrum, Impedance and Transmission Loss of Power Line Communications [J]. IEEE Transactions on Consumer Electronics, 1988, 34(2): 321-326
【T89】M. Tanaka. Transmission Characteristics of a Power Line Used for Data Communication at High Frequencies [J]. IEEE Transactions on Consumer Electronics, 1989, 35(1): 37-42
【T99】E. Telatar. Capacity of Multi-antenna Gaussian Channels [J]. European Transactions of Telecommunications, 1999, 10: 585-595
【TRG03】F. Tlili, F. Rouissi, A. Ghazel. Precoded OFDM for Power Line Broadband Communication [J]. IEEE Circiuts and systems, 2003, 2: 109-112
【TSGGCL03】L. T. Tang, P. L. So, E. Gunawan, Y. L. Guan, S. Chen, T. T. Lie. Characterization and Modeling of In-building Power Lines for High-speed Data Transmission [J]. IEEE Transactions on Power Delivery, 2003, 18: 69-77
【W00】H. P. Widmer. On the Global EMC Aspect of Broadband Power Line Communications Using HF the HF Frequency Band [J]. IZS’2000
【W04】魏子木.井下移动通信[J].煤炭技术, 2004, 23(5): 33-34
【WE71】S. B. Weinstein, P. M. Ebert. Data Transmission by Frequency Division Multiplexing Using the Discrete Fouriertransform [J]. IEEE Transactions on communications, 1971, 19(5): 628-634
【WGALY04】Y. Wang, J. H. Ge, B. Ai, P. Liu, S. Yang. A Soft Decision Deloding Scheme for Wireless COFDM with Application to DVB-T [J]. IEEE Transactions on Consumer electronics, 2004, 50(1): 84-88
【WS98】N. Weste, D. J. Skellem. VISI for OFDM [J]. IEEE Communication magazine, 1998, 36(10): 127-134
【WSCJT07】温晓龙,宋存义,崔巍,金龙哲, Tim folsom.盛沟煤矿综合无线通信系统的设计与应用[J].煤炭学报, 2007, 32(11): 1211-1215
【WVVWS05】P. A. A. F. Wouters, P. C. J. M. V. Wielen, J. Veen, P. Wagenaars, E. F. Steennis. Effect of Cable Load Impedance on Coupling Schemes for MV Power Line Communication [J]. IEEE Transactions on Power Delivery, 2005, 20(2): 633-645
【WWYZ06】王文星,王文华,杨公训,张榛楠.基于OFDM的低压电力线衰落信道的研究及应用[J].煤炭科学技术, 2006, 34(7): 43-45
【WXZ01】吴明捷,徐丽洁,张克.直接序列扩频通信在煤矿井下移动通信中的应用[J].煤矿自动化, 2001, 3: 6-8
【WZZ02】吴明捷,张克,张威.扩频通信在煤矿井下通信和安全中的应用[J].煤炭学报, 2002, 27(1): 88-91
【YL04】J. Y. Yeun, H. Lee. A Bandwidth Efficient Precode to Reduce Inter-carrier Interference in OFDM [J]. IEEE VTC2004 Spring, Milan, Italy, 2004, 2: 944-946
【YM03】虞华艳,毛德祥. OFDM实现低压电力线高速数据通信[J].继电器, 2003, 12(31): 23-26
【YY07】俞菲,杨绿溪. OFDM系统中基于载波干扰比最大的预编码方案[J].电子与信息学报, 2007, 29(4): 880-883
【Z00】M. Zimmermann. Energiverteilnetze als Zugangsmedium for Telekommunikationsdlenste, Dissertation, published by Shaker, 2000
【ZC05】赵青梅,陈湘源.上湾煤矿井下无线通信系统PAS研究[J].煤炭工程, 2005, (2): 44-46
【ZCHX02】张有兵,程时杰,何海波,熊兰, J Niguimbis.低压电力线高频载波通信信道的建模研究[J].电力系统自动化, 2002, 26(23): 1-5
【ZCX03】张有兵,程时杰,熊兰.基于低压电力线实测信道特性的OFDM分析和仿真[J].电力系统自动化, 2003, 27(11): 16-22
【ZD001】M. Zimmerman, K. Dostert. The Low Voltage Power Distribution Network as Last Mile Access Network-Signal Propagation and Noise Scenarios in the HF-Range [J]. Int. J. Electron. Commununications (AEU), 2000, 54(1): 131-138
【ZD002】M. Zimmermann, K. Dostert. An Analysis of the Broadband Noise Scenario in Powerline Networks [J]. Proceedings of the 4th International Symposium onPower-line Communications and Applications, Ireland, 2000: 131-138
【ZD003】M. Zimmermann, K. Dostert. Analysis and modeling of impulsive noise in broad-band powerline communications [J]. IEEE Transactions on Electromagn Compart, 2000, 44(1): 249-257
【ZD021】M. Zimmermann, K. Dostert. A Multipath Model for the Power line Channel [J]. IEEE Transactions on Communications, 2002, 50(4): 553-59.
【ZD022】M. Zimmermann, K. L. Dostert. Analysis and Modeling of Impulsive Noise in Broad-Band Powerline Communications [J]. IEEE Transactions on Electromagnetic Compatibility, 2002, 44(1): 249-258
【ZDW02】张申,丁恩杰,武增.煤矿井下综合数字网网络结构的研究[J].煤炭学报, 2002, 27(2): 206-210
【ZH01】Zhao Yuping, S.G. Haggman. Intercarrier interference self-cancellation scheme for OFDM mobile communication systems [J]. IEEE Trans. on Communications, 2001, 49(7): 1185-1191
【ZH02】张有兵,何海波等.低压电力线载波通信中信道模型的研究[J].继电器, 2002, 30(5): 20-24
【ZJXZ03】赵云峰,江晓岩,徐立中,赵明宇.低压电力线噪声分析与建模[J].电力系统通信, 2003, 1: 31-34
【ZLY00】赵洪山,刘立丰,杨奇逊.低压电力线扩频载波通信方案[J].电力系统自动化, 2000, 12(24): 49-52
【ZTZL08】L. Zbydniewski, P. Turcza, T. Zielinski, J. P. Lopez. Performance Analysis of Uncoded/coded Windowed-OFDM and Circular Wavelet-OFDM Transmission in PLC Channel with Bit-loading. Signals and Electronic Systems [J]. ICSES '08, International Conference, 2008: 423-426
【ZYMZ03】张圣清,于东海,马建旭,邹采荣.低压电力线通信信道噪声特性的测试与分析[J].电力系统通信, 2003, (1): 35-38