[1] 同月苹, 王艳, 张少辉. 隧道衬砌纤维混凝土力学性能与耐久性能的研究进展［J］. 材料科学与工程学报, 2022, 40(3): 528-536.

[2] EBOLOR A. Backcasting frugally innovative smart sustainable future cities［J］. J Clean Prod, 2023, 383: 135300.

[3] 刘金涛, 黄存旺, 杨杨, 等. 三维石墨烯-碳纳米管/水泥净浆的压敏性能［J］. 复合材料学报, 2022, 39(1): 313-321.

[4] SAJID H U, JALAL A, KIRAN R, et al. A survey on the effects of deicing materials on properties of Cement-based materials［J］. Constr Build Mater, 2022, 319: 126062.

[5] 王飞, 代伟, 毛英辉, 等. 防护工程电磁屏蔽混凝土电磁损耗及屏蔽性能研究. 混凝土, 2022, 12: 185-188.

[6] XI X, CHUNG D D L. Deviceless cement-based structures as energy sources that enable structural self-powering［J］. Appl Energy, 2020, 280: 115916.

[7] ZHANG E Q, TANG L P. Rechargeable concrete battery［J］. Buildings, 2021, 11(3): 103.

[8] 曹亚龙, 徐金霞, 蒋林华, 等. 自感知镍纳米线/水泥基复合材料的制备及压敏性能［J］. 复合材料学报, 2018, 35(4): 957-963.

[9] 董必钦, 殷慧, 邢锋, 等. 碳纤维水泥基复合材料电阻特性的研究［J］. 建筑材料学报, 2007, 10(5): 538-542.

[10] 秦煜, 阮鹏臻, 唐元鑫, 等. 碳纳米管水泥基复合材料导电特性影响因素研究进展［J］. 硅酸盐学报, 2021, 49(2): 411-419.

[11] SALAMI N, SHOKRI A, ESRAFILIAN M. Vertical quantum tunneling transport based on MoS2/WTe2 nanoribbons［J］. Phys Lett A, 2022, 445: 128228.

[12] JONSCHER A K. Dielectric relaxation in solids［J］. J Phys D: Appl Phys, 1999, 32(14): R57-R70.

[13] EDDIB A A, CHUNG D D L. Electric permittivity of carbon fiber［J］. Carbon, 2019, 143: 475-480.

[14] XI X, CHUNG D D L. Colossal electric permittivity discovered in polyacrylonitrile (PAN) based carbon fiber, with comparison of PAN-based and pitch-based carbon fibers［J］. Carbon, 2019, 145: 734-739.

[15] XI X, CHUNG D D L. Role of grain boundaries in the dielectric behavior of graphite［J］. Carbon, 2021, 173: 1003-1019.

[16] CHUNG D D L, XI X. Factors that govern the electric permittivity of carbon materials in the graphite allotrope family［J］. Carbon, 2021, 184: 245-252.

[17] MAKUL N. Dielectric permittivity of various cement-based materials during the first 24 hours hydration［J］. Open J Inorg Non-Met Mater, 2013, 3: 53-57.

[18] 张莹, 史美伦. 水泥基材料水化过程的交流阻抗研究［J］. 建筑材料学报, 2000, 3(2): 109-112.

[19] 史美伦, 张莹. 水泥水化早中期的交流阻抗研究(Ⅰ): 起始期的交流阻抗响应分析［J］. 建筑材料学报, 2002, 5(3): 210-214.

[20] 史美伦, 张莹. 水泥水化早中期的交流阻抗研究(Ⅱ): 诱导期到减速期的交流阻抗响应［J］. 建筑材料学报, 2002, 5(4): 331-335.

[21] 陈向荣, 史美伦, 贺鸿珠, 等. 水硬性胶凝材料水化性质评估的阻抗方法［J］. 建筑材料学报, 2011, 14(1): 22-25.

[22] CHUNG D D L, WANG Y L. Capacitance-based stress self-sensing in cement paste without requiring any admixture［J］. Cem Concr Compos, 2018, 94: 255-263.

[23] SHI K R, CHUNG D D L. Piezoelectricity-based self-sensing of compressive and flexural stress in cement-based materials without admixture requirement and without poling［J］. Smart Mater Struct, 2018, 27(10): 105011.

[24] CHUNG D D L. Self-sensing concrete: From resistance-based sensing to capacitance-based sensing［J］. Int J Smart Nano Mater, 2021, 12(1): 1-19.

[25] WANG Y L, CHUNG D D L. Capacitance-based defect detection and defect location determination for cement-based material［J］.Mater Struct, 2017, 50(6): 1-13.

[26] WANG Y, CHUNG D D L. Capacitance-based nondestructive detection of aggregate proportion variation in a cement-based slab［J］. Compos Part B: Eng, 2018, 134: 18-27.

[27] VOSS A, POUR-GHAZ M, VAUHKONEN M, et al. Electrical capacitance tomography to monitor unsaturated moisture ingress in cement-based materials［J］. Cem Concr Res, 2016, 89: 158-167.

[28] VOSS A, HNNINEN N, POUR-GHAZ M, et al. Imaging of two-dimensional unsaturated moisture flows in uncracked and cracked cement-based materials using electrical capacitance tomography［J］. Mater Struct, 2018, 51(3): 68.

[29] 杨森, 王远贵, 齐孟, 等. 氧化石墨烯对多壁碳纳米管掺配水泥砂浆强度、压敏性能与微观结构的影响［J］. 复合材料学报, 2022, 39(5): 2340-2355.

[30] 赵昕, 黄存旺, 傅佳丽, 等. 石墨烯水泥基复合材料的电学性能［J］. 建筑材料学报, 2022, 25(1): 8-15.

[31] 刘卫森, 郭英健, 胡捷, 等. 碳纤维-碱激发砂浆自感知性能［J］. 硅酸盐学报, 2021, 49(7): 1510-1518.

[32] KEDDAM M, TAKENOUTI H, NVOA X R, et al. Impedance measurements on cement paste［J］. Cem Concr Res, 1997, 27(8): 1191-1201.

[33] WANG H, SHEN J L, LIU J Z, et al. Influence of carbon nanofiber content and sodium chloride solution on the stability of resistance and the following self-sensing performance of carbon nanofiber cement paste［J］. Case Stud Constr Mater, 2019, 11: e00247.

[34] HU X, SHI C J, YUAN Q, et al. AC impedance spectroscopy characteristics of chloride-exposed cement pastes［J］. Constr Build Mater, 2020, 233: 117267.

[35] DONG B Q, WU Y S, TENG X J, et al. Investigation of the Cl?傆b migration behavior of cement materials blended with fly ash or/and slag via the electrochemical impedance spectroscopy method［J］. Constr Build Mater, 2019, 211: 261-270.

[36] MELARA E K, MENDES A Z, ANDRECZEVECZ N C, et al. Monitoring by electrochemical impedance spectroscopy of mortars subjected to ingress and extraction of chloride ions［J］. Constr Build Mater, 2020, 242: 118001.

[37] HOU W, HE F Q, LIU Z Q. Characterization methods for sulfate ions diffusion coefficient in calcium sulphoaluminate mortar based on AC impedance spectroscopy［J］. Constr Build Mater, 2021, 289: 123169.

[38] XI X, CHUNG D D L. Effects of cold work, stress and temperature on the dielectric behavior of copper［J］. Mater Chem Phys, 2021, 270: 124793.

[39] LIU W, YIN J N, WANG J H, et al. Dielectric and piezoelectric behavior of PVDF-modified 3-3 type cement-based piezoelectric composites［J］. Smart Mater Struct, 2021, 30(12): 125021.

[40] 张然, 刘磊, 刘岩. 膨胀石墨制备及其对柔性石墨抗拉强度的影响［J］. 非金属矿, 2021, 44(3): 60-63.

[41] CHUNG D D L. A review of exfoliated graphite［J］. J Mater Sci, 2016, 51(1): 554-568.

[42] LEONG C K, AOYAGI Y, CHUNG D D L. Carbon black pastes as coatings for improving thermal gap-filling materials［J］. Carbon, 2006, 44(3): 435-440.

[43] WANG S K, PANG D S, CHUNG D D L. Hygrothermal stability of electrical contacts made from silver and graphite electrically conductive pastes［J］. J Electron Mater, 2007, 36(1): 65-74.

[44] WANG L N, ASLANI F. Electrical resistivity and piezoresistivity of cement mortar containing ground granulated blast furnace slag［J］. Constr Build Mater, 2020, 263: 120243.

[45] TAO J, WANG X H, WANG Z D, et al. Graphene nanoplatelets as an effective additive to tune the microstructures and piezoresistive properties of cement-based composites［J］. Constr Build Mater, 2019, 209: 665-678.

[46] CHUNG D D L. Pitfalls and methods in the measurement of the electrical resistance and capacitance of materials［J］. J Electron Mater, 2021, 50(12): 6567-6574.

[47] 秦昭巧, 陈新杰, 储洪强等. 镀镍碳纤维水泥基材料的电热性能研究［J］. 硅酸盐通报, 2022, 41(3) 802-809.

[48] 刘状壮, 张有为, 季鹏宇, 等. 电热型融雪路面技术研究综述［J］. 长安大学学报(自然科学版), 2022, 42(3): 14-25.

[49] 袁小亚, 张维福, 曹潘磊, 等. 复掺石墨烯/氧化石墨烯改性砂浆电学与融雪化冰性能研究［J］. 功能材料, 2021, 52(12): 12100-12110.

[50] WANG S, WEN S, CHUNG D D L. Resistance heating using electrically conductive cements［J］. Adv Cem Res, 2004, 16: 161-166.

[51] FORD S J, HWANG J H, SHANE J D, et al. Dielectric amplification in cement pastes［J］. Adv Cem Based Mater, 1997, 5(2): 41-48.

[52] COVERDALE R T, GARBOCZI E J, JENNINGS H M, et al. Computer simulation of impedance spectroscopy in two dimensions: Application to cement paste［J］. J Am Ceram Soc, 1993, 76(6): 1513-1520.

[53] WANG A D, CHUNG D D L. Dielectric and electrical conduction behavior of carbon paste electrochemical electrodes, with decoupling of carbon, electrolyte and interface contributions［J］. Carbon, 2014, 72: 135-151.

[54] BHATTACHARYA S, SACHDEV V K, CHATTERJEE R, et al. Decisive properties of graphite-filled cement composites for device application［J］. Appl Phys A, 2008, 92(2): 417-420.

[55] SACHDEV V K, SHARMA S K, BHATTACHARYA S, et al. Electromagnetic shielding performance of graphite in cement matrix for applied application［J］. Adv Mater Lett, 2015, 6(11): 965-972.

[56] HADDAD A S, CHUNG D D L. Decreasing the electric permittivity of cement by graphite particle incorporation［J］. Carbon, 2017, 122: 702-709.

[57] 孙云龙, 李忠华, 索长友. 电导非线性对HVDC电缆绝缘空间电荷动态过程的影响［J］. 电机与控制学报, 2019, 23(7): 27-37.

[58] 查俊伟, 田娅娅, 刘雪洁, 等. 本征型耐高温聚酰亚胺储能电介质研究进展［J］. 高电压技术, 2021, 47(5): 1759-1770.

[59] GUIHARD V, TAILLADE F, BALAYSSAC J P, et al. Permittivity measurement of cementitious materials with an open-ended coaxial probe［J］. Constr Build Mater, 2020, 230: 116946.

[60] 黄威, 王轩, 李永清, 等. 微波吸收材料电磁特性响应规律及影响因素研究进展［J］. 材料导报, 2023, 37(7): 21090051.

[61] WU Y H, HAN M G, LIU T, et al. Studies on the microwave permittivity and electromagnetic wave absorption properties of Fe-based nano-composite flakes in different sizes［J］. J Appl Phys, 2015, 118(2): 023902.

[62] CHUNG D D L, XI X. A review of the colossal permittivity of electronic conductors, specifically metals and carbons［J］. Mater Res Bull, 2022, 148: 111654.

[63] PENG Y Z, GONG F Y, WANG Z, et al. Experimental study on time-dependent dc resistivity of cement-based material considering microstructure and ion concentration［J］. Constr Build Mater, 2023, 363: 129830.

[64] WANG M, CHUNG D D L. High electric permittivity of polymer-modified cement due to the capacitance of the interface between polymer and cement［J］. J Mater Sci, 2018, 53(10): 7199-7213.

[65] DONG W K, LI W G, VESSALAS K, et al. Piezoresistivity deterioration of smart graphene nanoplate/cement-based sensors subjected to sulphuric acid attack［J］. Compos Commun, 2021, 23: 100563.

[66] LIU L Y, XU J X, YIN T J, et al. Improved conductivity and piezoresistive properties of Ni-CNTs cement-based composites under magnetic field［J］. Cem Concr Compos, 2021, 121: 104089.

[67] WANG H, ZHANG A L, ZHANG L C, et al. Electrical and piezoresistive properties of carbon nanofiber cement mortar under different temperatures and water contents［J］. Constr Build Mater, 2020, 265: 120740.

[68] AMANI N, VIPULANANDAN C, PLANK J. Monitoring the hydration and strength development in piezoresistive cement admixed with superplasticizer and retarder additives［J］. J Petroleum Sci Eng, 2020, 195: 107601.

[69] DONG W K, LI W G, GUO Y P, et al. Mechanical properties and piezoresistive performances of intrinsic graphene nanoplate/cement- based sensors subjected to impact load［J］. Constr Build Mater, 2022, 327: 126978.

[70] DONG W K, LI W G, GUO Y P, et al. Piezoresistive performance of hydrophobic cement-based sensors under moisture and chloride-rich environments［J］. Cem Concr Compos, 2022, 126: 104379.

[71] LUO J L, KWOK L C, LI Q Y, et al. Piezoresistive properties of cement composites reinforced by functionalized carbon nanotubes using photo-assisted Fenton［J］. Smart Mater Struct, 2017, 26(3): 035025.

[72] COPPOLA L, BUOSO A, CORAZZA F. Electrical properties of carbon nanotubes cement composites for monitoring stress conditions in concrete structures［J］. Appl Mech Mater, 2011, 82: 118-123.

[73] CHUNG D D L, XI X. Electric poling of carbon fiber with and without nickel coating［J］. Carbon, 2020, 162: 25-35.

[74] XI X, OZTURK M, CHUNG D D L. DC electric polarization of cured cement paste being unexpectedly hindered by free water［J］. J Am Ceram Soc, 2022, 105(2): 1074-1082.

[75] XI X, CHUNG D D L. Dielectric behavior of graphite, with assimilation of the AC permittivity, DC polarization and DC electret［J］. Carbon, 2021, 181: 246-259.

[76] YANG W Y, CHUNG D D L. First report of the ferroelectric behavior of a metal, as shown for solder［J］. J Mater Sci: Mater Electron, 2021, 32(12): 16979-16989.

[77] XI X, CHUNG D D L. Electret behavior of unpoled carbon fiber with and without nickel coating［J］. Carbon, 2020, 159: 122-132.

[78] XI X, CHUNG D D L. Electret behavior of carbon fiber structural composites with carbon and polymer matrices, and its application in self-sensing and self-powering［J］. Carbon, 2020, 160: 361-389.

[79] XI X, CHUNG D D L. Electret, piezoelectret, dielectricity and piezoresistivity discovered in exfoliated-graphite-based flexible graphite, with applications in mechanical sensing and electric powering［J］. Carbon, 2019, 150: 531-548.

[80] CHUNG D D L, DUONG D Q. Observation of electric polarization continuity in graphite［J］. Mater Chem Phys, 2023, 297: 127357.

[81] WEN S H, CHUNG D D L. Electric polarization in carbon fiber-reinforced cement［J］. Cem Concr Res, 2001, 31(1): 141-147.

[82] HUANG L M, TANG L P, LFGREN I, et al. Real-time monitoring the electrical properties of pastes to map the hydration induced microstructure change in cement-based materials［J］. Cem Concr Compos, 2022, 132: 104639.

[83] LEE N K, TAFESSE M, LEE H K, et al. Electrical resistivity stability of CNT/cement composites after further hydration: A simple evaluation with an accelerated method［J］. Constr Build Mater, 2022, 317: 125830.

[84] FARQAD Y, WEI X S. Early strength development and hydration of cement pastes at different temperatures or with superplasticiser characterised by electrical resistivity［J］. Case Stud Constr Mater, 2022, 16: e00911.

[85] 何丽, 陈庆, 蒋正武. 基于水化进程的硬化水泥浆体电导率动态计算模型［J］. 建筑材料学报, 2022, 25(1): 1-7.

[86] 赵树青, 董春晖, 宋元金. 含水量对碳纤维水泥砂浆导电性能影响的试验研究［J］. 公路, 2020, 65(10): 303-305.

[87] HU A, FANG Y H, YOUNG J F, et al. Humidity dependence of apparent dielectric constant for DSP cement materials at high frequencies［J］. J Am Ceram Soc, 1999, 82(7): 1741-1747.

[88] GU P, BEAUDOIN J J. Dielectric behaviour of hardened cement paste systems［J］. J Mater Sci Lett, 1996, 15(2): 182-184.

[89] 窦占明, 肖文荣, 赵小榕, 等. Mn掺杂对0.77NaNbO3-0.23BaTiO3铁电陶瓷电卡性能的影响［J］. 硅酸盐学报, 2022, 50(12): 3199-3205.

[90] 倪波, 张晓燕, 甄茹, 等. A位无序高熵钙钛矿氧化物的介电及铁电性能［J］. 硅酸盐学报, 2022, 50(6): 1475-1480.

[91] 杨利, 陈超, 江向平, 等. 相界附近结构演化及淬火对BiFeO3-BaTiO3压电陶瓷结构与电学性能的影响［J］. 硅酸盐学报, 2022, 50(6): 1533-1541.

[92] LIU R, GU C, TIAN X, et al. Temperature dependent scaling behavior of 0.67PMN-0.33PT relaxor ferroelectric ceramics［J］. Ceram Int, 2022, 48: 22411-22416.

[93] RIANYOI R, POTONG R, JAITANONG N, et al. Dielectric and ferroelectric properties of 1-3 Barium titanate-Portland cement composites［J］. Curr Appl Phys, 2011, 11(3): S48-S51.

[94] CHUNG D D L, XI X. Electric poling of carbon fiber with and without nickel coating［J］. Carbon, 2020, 162: 25-35.

[95] XI X, CHUNG D D L. Dynamics of the electric polarization and depolarization of graphite［J］. Carbon, 2021, 172: 83-95.

[96] WEN S, CHUNG D D L. The role of electronic and ionic conduction in the electrical conductivity of carbon fiber reinforced cement［J］. Carbon, 2006, 44: 2130-2138.

[97] 王聪聪, 杜红秀, 石丽娜, 等. 碳纤维-钢纤维水泥基复合材料电学性能试验研究［J］. 硅酸盐通报, 2022, 41(8): 2690-2705.

[98] 左俊卿, 房霆宸, 廖刚. CNT-CF/水泥基材料导电性能研究［J］. 硅酸盐通报, 2019, 38(12): 3922-3926.

[99] 蔡红雷, 闫晓鑫, 张安江, 等. CB/CNTs/PP导电高聚物力/温度作用下介电性能的研究［J］. 功能材料, 2019, 50(11): 11024-11029.

[100] AGARWAL P, ORAZEM M E, GARCIA-RUBIO L H. Application of measurement models to impedance spectroscopy: III. evaluation of consistency with the Kramers-Kronig relations［J］. J Electrochem Soc, 1995, 142(12): 4159-4168.

[101] HUBBARD J B. Friction on a rotating dipole［J］. J Chem Phys, 1978, 69(3): 1007-1009.

[102] LEWIS T J. Interfaces: nanometric dielectrics［J］. J Phys D: Appl Phys, 2005, 38(2): 202-212.

[103] CHUNG D. Review: Improving cement-based materials by using silica fume［J］. J Mater Sci, 2002, 37: 673-682.

[104] FALLAH-VALUKOLAEE S, MOUSAVI R, ARJOMANDI A, et al. A comparative study of mechanical properties and life cycle assessment of high-strength concrete containing silica fume and nanosilica as a partial cement replacement［J］. Structures, 2022, 46: 838-851.

[105] 钟伟荣, 贺伟荣, 史美伦, 等. 混凝土矿物掺合料活性的阻抗谱研究［J］. 粉煤灰, 2006, 18(4): 18-19.

[106] 史美伦, 张雄, 李平江, 等. 胶凝材料的组成、力学性能与交流阻抗谱的关系［J］. 硅酸盐通报, 1999, 18(4): 14-17.

[107] 张震雷, 史美伦. 混凝土中矿物掺和料水合机理的交流阻抗研究［J］. 建筑材料学报, 2006, 9(3): 366-369.

[108] 张震雷, 史美伦. 交流阻抗谱表征磨细矿渣胶凝活性的研究［J］. 建筑材料学报, 2005, 8(5): 583-585.

[109] 李平江, 史美伦, 陈志源. 粉煤灰细度与其火山灰活性的关系［J］. 建筑材料学报, 2004, 7(2): 207-209.

[110] CHUNG D D L. Use of polymers for cement-based structural materials［J］. J Mater Sci, 2004, 39(9): 2973-2978.

[111] 张璐, 毛倩瑾, 伍文文, 等. 吸水性微胶囊界面修饰提高水泥基材料抗渗性研究［J］. 硅酸盐通报, 2022, 41(8): 2663-2671.

[112] 刘加平, 刘建忠, 韩方玉, 等. 基于钢-混凝土组合结构轻量化的粗骨料超高性能混凝土研究进展与应用［J］. 建筑结构学报, 2022, 43(9): 36-44.

[113] CAO J Y, CHUNG D D L. Electric polarization and depolarization in cement-based materials, studied by apparent electrical resistance measurement［J］. Cem Concr Res, 2004, 34(3): 481-485.

[114] WEN S H, CHUNG D D L. Pyroelectric behavior of cement-based materials［J］. Cem Concr Res, 2003, 33(10): 1675-1679.

[115] WANG Y L, CHUNG D D L. Effect of the fringing electric field on the apparent electric permittivity of cement-based materials［J］. Compos B Eng, 2017, 126: 192-201.

[116] 刘雅琦, 王淑娟, 李立新. 高炉镍铁渣和钢纤维改性混凝土的耐热性和热损伤规律［J］. 硅酸盐通报, 2021, 40(7): 2320-2330.

[117] 赵宁, 乔双, 马雯, 等. 热释电材料性能及应用研究进展［J］. 稀有金属, 2022, 46(9): 1225-1234.

[118] LEE J, KIM H J, KO Y J, et al. Enhanced pyroelectric conversion of thermal radiation energy: Energy harvesting and non-contact proximity sensor［J］. Nano Energy, 2022, 97: 107178.

[119] SHI Z Q, CHUNG D D L. Carbon fiber-reinforced concrete for traffic monitoring and weighing in motion［J］. Cem Concr Res, 1999, 29(3): 435-439.

[120] CHUNG D D L, XI X. Piezopermittivity for capacitance-based strain/stress sensing［J］. Sens Actuat A Phys, 2021, 332: 113028.

[121] 胡鹏兵, 陈娟, 孙航, 等. 基于压电陶瓷的地聚合物砂浆强度发展监测研究［J］. 硅酸盐通报, 2021, 40(9): 2905-2910.

[122] 徐先洋, 钱霖, 张峰, 等. 1-3型水泥基压电复合材料在冲击载荷下的电学响应［J］. 压电与声光, 2017, 39(3): 433-436.

[123] PAN H H, GUAN J C. Stress and strain behavior monitoring of concrete through electromechanical impedance using piezoelectric cement sensor and PZT sensor［J］. Constr Build Mater, 2022, 324: 126685.

[124] FU X L, MA E M, CHUNG D D L, et al. Self-monitoring in carbon fiber reinforced mortar by reactance measurement［J］. Cem Concr Res, 1997, 27(6): 845-852.

[125] WEN S H, CHUNG D D L. Cement-based materials for stress sensing by dielectric measurement［J］. Cem Concr Res, 2002, 32(9): 1429-1433.

[126] WEN S H, CHUNG D D L. Piezoelectric cement-based materials with large coupling and voltage coefficients［J］. Cem Concr Res, 2002, 32(3): 335-339.

[127] WANG S D, LU L C, CHENG X. Effect of ultra-fine fly ash on the dielectric behavior of CFSC under stress［J］. Adv Mater Lett, 2012, 2(1): 12-16.

[128] CHUNG D D L. First review of capacitance-based self-sensing in structural materials［J］. Sens Actuators A, 2023, 354: 114270.

[129] CHUNG D D L. A critical review of electrical-resistance-based self-sensing in conductive cement-based materials［J］. Carbon, 2023, 203: 311-325.