[2] Ashworth V, Booker C J L. Cathodic Protection - Theory and Practice [M]. Chichester : Ellis Horwood, 1986.
[3] Guo J, Patterson L, Amorelli A, Condanni D, Bazzoni B. Experience on Offshore Cathodic Protection Retrofitting in the Northern South China Sea [J]. Acta Oceanologica Sinica, 2003, 22 (4): 679-688.
[4] Gleason J D. Impressed Current Cathodic Protection for Large Offshore Platforms. Materials Performance, 1978, 17 (2): 9-13.
[5] Baeckmann W V, Schwenk W, Prinz W. Handbook of Cathodic Corrosion Protection (3rd Edition) [M]. Houston: Gulf Publishing Company, 1997.
[6] Hartt W H. Cathodic Protection of Offshore Structures - History and Current Status [J]. Corrosion, 2012, 68 (12): 1063-1075.
[7] National Standardiztion Administration of the People’s Republic of China (国家标准化管理委员会).GB/T 4950-2002, Sacrificial Anode of Zn-Al-Cd Alloy (锌-铝-镉合金牺牲阳极)[S]. Beijing: China Standards Publishing House, 2002.
[8] Redding J T and Newport J J. The influence of Alloying Elements on Aluminum Anodes in Seawater [J]. Materials Protection and Performance. 1966,(5): 15-18
[9] Lemieux E, Hartt W H., Lucas K E. A Critical Review of Aluminum Anode Activation, Dissolution Mechanisms and Performance[C]. NACE International Corrosion 2001. Huston: NACE International, 2001: Paper No.01509.
[10] International Standardization Organization. ISO 15589-2 Petroleum and Natural Gas Industries - Cathodic Protection for Pipeline Transportation Systems - Part 2: Offshore Pipelines [S].Geneva: International Standardization Organization, 2004.
[11] Det Norske Veritas. DNV-RP-F103, Cathodic Protection of Submarine Pipelines by Galvanic Anodes [S]. Hovik: Det Norske Veritas, 2003.
[12] Xu Likun, Ma Yanyan, Li Xiangbo, et al. Performance of Aluminum Alloy Sacrificial Anode under Cyclic Immersion in Seawater [C]. NACE International Corrosion 2010, Huston: NACE International,2010: Paper No.10397.
[13] Yan Y G (闫永贵), Ma L(马力). and Qian J H(钱建华). Aluminum Alloy Sacrificial Anode Suitable for Deep Seawater (一种适合于深海环境的铝合金牺牲阳极): China, 200810249621[P]. 2008-12-25.
[14] Wei Zhaobo(魏兆波),Wu Jianhua(吴建华),Chen Guangzhang(陈光章), et al. 高活化铝合金牺牲阳极材料的研制. Electrochemistry (电化学),1995,1(3):339-341.
[15] Ma L, Li K, Yan Y, et al. Low Voltage Aluminum Alloy Anode for Cathodic Protection of High Strength Steel[J]. Advanced Material Research, 2009( 79-82): 1047-1050.
[16] Ma L, Li K, Yan Y, et al. Development of Low Driving Voltage Sacrificial Anode[C]. NACE East Asia & Pacific Rim Area Conference & Expo 2012. Shanghai: NACE International,2012: Paper No.12060.
[17] Yan Y G (闫永贵), Ma L(马力). and Qian J H(钱建华). Low Driving Voltage Aluminum Alloy Anode (一种低驱动电位铝合金牺牲阳极):China, 200810249622 [P]. 2008-12-25.
[18] Rossi S, Bonora P L, Pasinetti R, et al. Composite Sacrificial Anodes for Offshore Structures [J]. Materials Performance. 1996,(2):29-33.
[19] Chess P M. Cathodic Protection of Steel in Concrete [M]. London: E & FN Spon, 1998: 93-111.
[20] Chi Shanwu (迟善武). 阴极保护恒电位仪的技术现状与展望[J]. Oil & Gas Storage and Transportation (油气储运), 2006, 25 (8): 53-56.
[21] Xu Likun (许立坤), Wang Tingyong (王廷勇), You Liangqian (尤良谦), et al. 地下结构物外加电流阴极保护用阳极评述 [J]. Electrochemistry (电化学), 2000, 6(2): 200-205.
[22] Rajani, G L. Modern Trend in Impressed Current Anodes for Cathodic Protection [C]. 6th Middle East Corrosion Conference, Bahrain: Bahrain Society of Engineers, 1994: 383-414.
[23] Xu Likun (许立坤), Wang Tingyong (王廷勇), Gao Yuzhu (高玉柱), et al. 船舶外加电流阴极保护用辅助阳极组件 [J]. Materials Development and Application (材料开发与应用), 2001, 16(2): 35-38.
[24] Dreyman E W. Precious Metal Anodes: State of the Art [J]. Materials Protection and Performance, 1972, 11( 9) : 17-20.
[25] Hayfield P C S. Platinized Titanium Electrodes for Cathodic Protection [J]. Platinum Metals Review, 1983, 27 (1) :2-8.
[26] Hayfield P C S. Development of the Noble Metal/Oxide Coated Titanium Electrode - Part I [J]. Platinum Metals Review, 1998, 42 (1): 27-33.
[27] Hayfield P C S. Development of the Noble Metal/Oxide Coated Titanium Electrode – Part II [J]. Platinum Metals Review, 1998, 42 (2) :46-55.
[28] Xu Likun,Wang Tingyong. Impressed Current Anode for Ship Hull Protection [J]. Materials Performance, 2011, 50 (6): 40-42
[29] Xu Likun (许立坤), Dong Saying (董飒英), Gao Yuzhu (高玉柱), et al. 金属氧化物阳极的失效行为研究 [J]. Corrosion Science and Protection Technology (腐蚀科学与防护技术),1998, 10 (6): 337-341.
[30] Xu Likun, Xin Yonglei, Wang Juntao. A Comparative Study on IrO2–Ta2O5 Coated Titanium Electrodes Prepared with Different Methods [J]. Electrochimica Acta, 2009, 54: 1820-1825.
[31] Xu Likun, Scantlebury J D. A Study on the Deactivation of an IrO2–Ta2O5 Coated Titanium Anode [J]. Corrosion Science, 2003, 45: 2729-2740.
[32] Xu Likun, Scantlebury J D. Electrochemical Surface Characterization of IrO2-Ta2O5 Coated Titanium Electrodes in Na2SO4 Solution [J]. Journal of the Electrochemical Society, 2003, 150 (6): B288-B293.
[33] David J G I, George J J. Reference Electrodes Theory and Practice [M]. New York: Academic Press, 1961.
[34] Xin Yonglei (辛永磊), Xu Likun (许立坤), Yin Pengfei (尹鹏飞), et al. 全固态Ag/AgCl参比电极电位稳定性的影响因素 [J]. Journal of Chinese Society for Corrosion and Protection (中国腐蚀与防护学报), 2013, 33 (3): 231-234.
[35] Frank J A, James R D. Factors Affecting the Accuracy of Reference Electrodes [J]. Materials Performance, 1994, 33(11): 14-17.
[36] Standards Norway. NORSOK Standard M-503, Cathodic Protection [S]. Lysaker: Standards Norway, 2007.
[37] Billingham J, Sharp J V. Review of the Performance of High Strength Steels Used Offshore [M]. Health & Safety Executive, 2003:111-140.
[38] Batt C L and Robinson M J. Hydrogen Embrittlement of Cathodically Protected High Strength Steel in Seawater and Seabed Sediment[J]. British Corrosion Journal. 2001, 37(1): 194-198.
[39] Det Norske Veritas. DNV RP-B401, Cathdic Protection Design [S]. Hovik: Det Norske Veritas, 2005.
[40] European Committee for Standardization. EN 12495, Cathodic Protection for Fixed Steel Offshore Structures[S]. Brussels: CEN, 2000.
[41] Parks A R, Thomas E D and Lucas K E. Physical Scale Modeling Verification with Shipboard Trails[J]. Materials Performance, 1991, 30(5):26.
[42] Ditchfield R W, Mcgrath J N and Tigheford D J. Theoretical Validation of the Physical Scale Modeling of the Electrical Potential Characteristics of Marine Impressed Current Cathodic Protection [J]. Journal of Applied Electrochemistry, 1995, 25: 54-56.
[43] Wu Jianhua (吴建华),Liang Chenghao (梁成浩),Yu Nan (于楠), et al.基于缩比模型模拟的船体单区域外加电流阴极保护系统[J]. Journal of Dalian Maritime University (大连海事大学学报),2010,36(1):34-38.
[44] Wu J H, Xing S H and Yun F L. The influence of Coating Damage on the ICCP Cathodic Protection Effect[C]. Electrochemical Process Simulation Ⅲ. Bologna: WIT Press, 2009: 89-96.
[45] Xie B, Xing S H, Yan Y G, et al. ICCP Simulation and Optimization of Semi-submersible Crane Barge Vessel[C]. NACE East Asia & Pacific Rim Area Conference & Expo 2012. Shanghai: NACE International, 2012: Paper No. 12060.
[46] Adey R A, Peratta C and Baynham J. Using Modeling to Interpret and Expand CP Survey Data[C]. NACE International Corrosion 2012. Houston: NACE International, 2012: Paper No.0001203 .
[47] Xing Shaohua(邢少华),Peng Yanlei(彭衍磊),Zhang Fan(张繁), et al. 压载舱阴极保护系统性能仿真及优化[J]. Equipment Environmental Engineering (装备环境工程),2011,8(1):5-9.
[48]Baynham J, Froome T, Adey R A. Jacket SACP System Design and Optimization Using Simulation [C]. NACE International Corrosion 2012. Houston: NACE International, 2012: Paper No.0001281.
[49]Jain A K, Peratta C, Baynham J, et al. Optimization of Retrofit Cathodic Protection Systems Using Computational Modeling by Evaluating Performance of Remnant and Retrofit CP Systems[C]. NACE International Corrosion 2011. Houston: NACE International, 2011: Paper No.11059.
[50] Xing S H, Wu J H and Yan Y G. Optimization of Ship’s ICCP System to Minimize Electric and Magnetic Signature by Mathematical Simulation[C]. Electrochemical Process Simulation Ⅲ. Bologna: WIT Press,2009: 69-77.
[51] Qiu Furong(邱富荣). The Check and Observation Technology of Cathodic Protection for Offshore Platform(石油平台阴极保护的检测与监测技术)[J]. China Offshore Platform(中国海洋平台),1995, 10(4):167-170.
[52] Joseph D, Winslow Jr. Cathodic Protection Monitoring:USA,4351703[P]. 1982-9-28.
[53] Britton J N. Method and Apparatus for Direct Measurement of Current Density: USA, 4644285[P]. 1987-2-17.
[54] Goolsby A D. The Results of Monitoring Platform “ELLEN” Cathodic Protection for Two Years[J]. Materials Performance, 1984, 23:26-29.
[55] Goolsby A D, Wolfson S L. Extended Cathodic Protection Monitoring of an Offshore Platform[J]. Materials Performance, 1999, 38:26-31.
[56] Li Shengli(李胜利),Li Zili(李自力). Cathodic Protection Monitoring of Subsea Pipelines in the Arctic Ocean(北冰洋海底管线的阴极保护监测)[J]. Foreign Oil Field Engineering(国外油田工程),2009, 25(9):49-50.
[57] Xiong Xinyong(熊信勇), Yan Tao(严涛), Xu Chuanbi(许川壁) et al. Development and Application of Cathodic Protection Monitoring System on Offshore Platforms(海洋平台阴极保护监测系统的研制及应用)[J]. Journal of Tropical Oceanography(热带海洋学报),2003, 22(1):70-75.
[58] Liu Liwei(刘立维),Lan Zhigang(兰志刚). The Development and Application of An Initial Cathodic Polarization Monitoring System for Offshore Jacket(导管架阴极保护初始极化监测采集系统开发应用)[J].Total Corrosion Control(全面腐蚀控制),2012, 26(4):34-38.
[59] Wang Xiutong, Lan Zhigang, Song Jiwen et al. Multichannel Cathodic Protection Monitoring System for Offshore Structures [J]. Marine Technology Society Journal, 2013, 47(1):96-100.
[60] Chen Jingjing(陈晶晶). Study on Real-time Monitoring and Evaluation System for the Cathodic Protection Status of Offshore Platform(海洋平台阴极保护实时监测与评估系统研究)[D].Dalian: Dalian University of Technology, 2008.
[61] Cheng Wenhua(程文华),Guo Weimin(郭为民),Xu Likun(许立坤). Introduction of a Device for Automatic Collection of Cathodic Protection Potential Data in Cyclic Wet-dry Environments(阴极保护电位自动采集装置的研制)[J]. Corrosion Science and Protection Technology(腐蚀科学与防护技术), 2009, 21(3):255-256.
[62] Gao Hongbiao(高宏飙),Liu Biyan(刘碧燕). Application of Cathodic Protection Inspection and Monitoring System in Offshore Wind Farm(海上风电阴极保护监检测系统的应用)[J]. Ship Engineering(船舶工程), 2013, 35(6):120-123.