[2] ASSAAD J J. Correlating thixotropy of self-consolidating concrete to ctability, formwork pressure, and multilayer casting［J］. J Mater Civ Eng, 2016, 28(10): 4016107.

[3] HAN J, YAN P. Influence of segregation on the permeability of self-consolidating concrete［J］. Constr Build Mater, 2021, 269: 121277.

[4] BUSWELL R A, Silva D A, Leal W R, BOS F P, et al. A process classification framework for defining and describing digital fabrication with concrete［J］. Cem Concr Res, 2020: 134: 106068.

[5] BIRANCHI P, LIM J, TAN M. Mechanical properties and deformation behaviour of early age concrete in the context of digital construction［J］. Compos Part B: Eng, 2019, 165: 563-571.

[6] TIMOTHY W, ROUSSEL, BOS F P, et al. Digital concrete: A review［J］. Cem Concr Res, 2019, 123: 105780.

[7] GEERT D S, LESAGE K, MECHTCHERINE V, et al. Vision of 3D printing with concrete - Technical, economic and environmental potentials［J］. Cem Concr Res, 2018, 112: 25-36

[8] ATCIN P C, FLATT R J. Science and Technology of Concrete Admixtures［M］. Elsevier Science, 2015.

[9] LI Zhuguo, CAO Guodong. Rheological behaviors and model of fresh concrete in vibrated state［J］. Cem Concr Res, 2019, 120: 217-226.

[11] AUSTIN S A, GOODIER C I, ROBINS P J. Low-volume wet-process sprayed concrete: Pumping and spraying［J］. Mater Struct, 2005, 38(2): 229-237.

[12] MELBYE T A, DIMMOCK R H. Modern advances and applications of sprayed concrete［J］. Shotcrete: Engineering Developments, 2020: 7-29.

[13] SECRIERU E, COTARDO D, MECHTCHERINE V, et al. Changes in concrete properties during pumping and formation of lubricating material under pressure［J］. Cem Concr Res, 2018, 108: 129-139.

[14] KOCH J A, CASTANEDA D I, EWOLDT R H, et al. Vibration of fresh concrete understood through the paradigm of granular physics［J］. Cem Concr Res, 2019, 115: 31-42.

[15] TATTERSALL G H, BAKER P H. The effect of vibration on the rheological properties of fresh concrete［J］. Mag Concr Res, 1988, 40(143): 79-89.

[16] HANOTIN C, RICHTER S K D, MICHOT L J, et al. Viscoelasticity of vibrated granular suspensions［J］. J Rheol, 2014, 59(1): 253-273.

[17] PICHLER C, RCK R, LACKNER R. Apparent power-law fluid behavior of vibrated fresh concrete: Engineering argu-ments based on Stokes-type sphere viscometer measurements［J］. J Non-Newton Fluid, 2017, 240: 44-55.

[18] PANG X, CUELLO J W, IVERSON B J. Hydration kinetics modeling of the effect of curing temperature and pressure on the heat evolution of oil well cement［J］. Cem Concr Res, 2013, 54: 69-76.

[19] PANG X, MEYER C, DARBE R, et al. Modeling the effect of curing temperature and pressure on cement hydration kinetics［J］. Aci Mater J, 2013, 110(2): 229-235.

[20] KIM J H, KWON S H, KAWASHIMA S, et al. Rheology of cement paste under high pressure［J］. Cem Concr Compos, 2017, 77: 60-67.

[21] ATCIN P C, MINDESS S. Sustainability of Concrete［M］. Crc Press, 2011.

[22] XIANG Y, XIE Y, LONG G, et al. Hydration phase and pore structure evolution of hardened cement paste at elevated temperature［J］. J Cent South Univ, 2021, 28(6): 1665-1678.

[23] NEHDI M, MARTINI S A. Estimating time and temperature dependent yield stress of cement paste using oscillatory rheology and genetic algorithms［J］. Cem Concr Res, 2009, 39(11): 1007-1016.

[24] NEHDI M, MARTINI S A. Estimating time and temperature dependent yield stress of cement paste using oscillatory rheology and genetic algorithms［J］. Cem Concr Res, 2009, 39(11): 1007-1016.

[25] NEHDI M, MARTINI S A. Effect of temperature on oscillatory shear behavior of ortland cement paste incorporat-ing chemical admixtures［J］. J Mater Civ Eng, 2007, 19(12): 1090-1100.

[26] MA S, KAWASHIMA S. A rheological approach to study the early-age hydration of oil well cement: Effect of temper-ature, pressure and nanoclay［J］. Constr Build Mater, 2019, 215: 119-127.

[27] WU D, FALL M, CAI S J. Coupling temperature, cement hydration and rheological behaviour of fresh cemented paste backfill［J］. Miner Eng, 2013, 42: 76-87.

[28] MA S, YU T, WANG Y, et al. Phase evolution of oil well cements with nano-additive at elevated tempera-ture/pressure［J］. Aci Mater J, 2016, 113(5): 571-578.

[29] PETERS S. The influence of power ultrasound on setting and strength development of cement suspensions［D］. Weimar: Bauhaus-Universitt, 2017.

[30] XIAO Q, LONG G, FENG R, et al. Effect of alternating current field on rheology of fresh cement-based pastes［J］. J Build Eng, 2022, 48: 103771.

[31] BREDENKAMP S, KRUGER K, BREDENKAMP G L. Direct electric curing of concrete［J］. Mag Concr Res, 1993, 45(162): 71-74.

[32] GOUDJIL N, DJELAL C, VANHOVE Y, et al. Impact of temperature on the demoulding of concrete elements with a polar-ization process［J］. Constr Build Mater, 2014, 54: 402-412.

[33] GOUDJIL N, VANHOVE Y, DJELAL C, et al. Electro-osmosis applied for formwork removal of concrete［J］. J Adv Concr Technol, 2012, 10(9): 301-312.

[34] LIU Y, WANG M, TIAN W, et al. Ohmic heating curing of carbon fiber/carbon nanofiber synergistically strengthening cement-based composites as repair/reinforcement materials used in ultra-low temperature environment［J］. Compos Part A: Appl Sci Manuf, 2019, 125: 105570.

[35] LIU Y, WANG M, WANG W. Ohmic heating curing of electrically conductive carbon nanofiber/cement-based compo-sites to avoid frost damage under severely low temperature［J］. Compos Part A: Appl Sci Manuf, 2018, 115: 236-246.

[36] LIU Y, WANG M, WANG W. Electric induced curing of graphene/cement-based composites for structural strength formation in deep-freeze low temperature［J］. Mater Des, 2018, 160: 783-793.

[38] BUTTRESS A, JONES A, KINGMAN S. Microwave processing of cement and concrete materials-towards an industrial reality?［J］. Cem Concr Res, 2015, 68: 112-123.

[39] MAKUL N, RATTANADECHO P, AGRAWAL D K. Applications of microwave energy in cement and concrete-A review［J］. Renewsust Energy Rev, 2014, 37: 715-733.

[40] LEUNG C K Y, PHEERAPHAN T. Determination of optimal process for microwave curing of concrete［J］. Cem Concr Res, 1997, 27(3): 463-472.

[41] WU X, DONG J, TANG M. Microwave curing technique in concrete manufacture［J］. Cem Concr Res, 1987, 17(2): 205-210.

[42] LEUNG C K Y, PHEERAPHAN T. Microwave curing of Portland cement concrete: experimental results and feasibility for practical applications［J］. Constr Build Mater, 1995, 9(2): 67-73.

[43] MUTHUKRISHNAN S, RAMAKRISHNAN S, SANJAYAN J. Effect of microwave heating on interlayer bonding and buildabil-ity of geopolymer 3D concrete printing［J］. Constr Build Mater, 2020, 265: 120786.

[44] BOUKENDAKDJI O, KADRI E, KENAI S. Effects of granulated blast furnace slag and superplasticizer type on the fresh properties and compressive strength of self-compacting concrete［J］. Cem Concr Compos, 2012, 34(4): 583-590.

[45] ZHANG J, GAO X, YU L. Improvement of viscosity-modifying agents on air-void system of vibrated concrete［J］. Constr Build Mater, 2020, 239: 117843.

[46] JIAO D, El Cheikh K, SHI C, et al. Structural build-up of cementitious paste with nano-Fe3O4 under time-varying magnetic fields［J］. Cem Concr Res, 2019, 124: 105857.

[47] NAIR S D, FERRON R D. Set-on-demand concrete［J］. Cem Concr Res, 2014, 57: 13-27.

[48] SU N, WU C. Effect of magnetic field treated water on mortar and concrete containing fly ash［J］. Cem Concr Compos, 2003, 25(7): 681-688.

[49] SOTO-BERNAL J J, GONZALEZ-MOTA R, ROSALES- CANDELAS I, et al. Effects of static magnetic fields on the physical, me-chanical, and microstructural properties of cement pastes［J］. Adv Mater Sci Eng, 2015, 2015(2): 1-9.

[50] CHEN J, WANG J, JIN W. Study of magnetically driven concrete［J］. Constr Build Mater, 2016, 121: 53-59.

[51] ABAVISANI I, REZAIFAR O, KHEYRODDIN A. Alternating magnetic field effect on fine-aggregate steel chip-rein-forced concrete properties［J］. J Mater Civ Eng, 2018, 6(30): 04018087.

[52] ABAVISANI I, REZAIFAR O, KHEYRODDIN A. Alternating magnetic field effect on fine-aggregate concrete compressive strength［J］. Constr Build Mater, 2017, 134: 83-90.

[53] NAIR S D, FERRON R D. Real time control of fresh cement paste stiffening: Smart cement-based materials via a mag-netorheological approach［J］. Rheol Acta, 2016, 55(7): 571-579.

[54] NAIR S D. Adaptive Performance of Cement-based Materials Using a Magnetorheological Approach［D］. The University of Texas at Austin, 2013.

[55] JIAO D, LESAGE K, YARDIMCI M Y, et al. Rheological properties of cement paste with nano-Fe3O4 under magnetic field: Flow curve and nanoparticle agglomeration［J］. Materials, 2020, 13(22): 5164.

[56] JIAO D, LESAGE K, YARDIMCI M Y, et al. Quantitative assessment of the influence of external magnetic field on clus-tering of nano-Fe3O4 particles in cementitious paste［J］. Cem Concr Res, 2021, 142: 106345.

[57] JIAO D, LESAGE K, YARDIMCI M Y, et al. Structural evolution of cement paste with nano-Fe3O4 under magnetic field-Effect of concentration and particle size of nano-Fe3O4［J］. Cem Concr Compos, 2021, 120: 104036.

[58] JIAO D, LESAGE K, YARDIMCI M Y, et al. Rheological behavior of cement paste with nano-Fe3O4 under magnetic field: Magneto-rheological responses and conceptual calculations［J］. Cem Concr Compos, 2021, 120: 104035.

[59] SURYANTO B, MCCARTER W J, STARRS G, et al. Electrochemical immittance spectroscopy applied to a hybrid PVA/steel fiber engineered cementitious composite［J］. Mater Des, 2016, 105: 179-189.

[60] LEE H, PARK S, CHO S, et al. Correlation analysis of heating performance and electrical energy of multi-walled car-bon nanotubes cementitious composites at sub-zero temperatures［J］. Compos Struct, 2020, 238: 111977.

[61] KOVTUN M, ZIOLKOWSKI M, SHEKHOVTSOVA J, et al. Direct electric curing of alkali-activated fly ash concretes: A tool for wider utilization of fly ashes［J］. J Clean Prod, 2016, 133: 220-227.

[62] WADHWA S S, SRIVASTAVA L K, GAUTAM D K, et al. Direct electric curing of in-situ concrete［J］. Build Res Inf, 1987, 20(2): 97-101.

[69] PILLA A A, MUEHSAM D J, MARKOV M S. A dynamical systems/Larmor precession model for weak magnetic field bioeffects: Ion binding and orientation of bound water molecules［J］. Bioelectrochem Bioenerg, 1997, 43(2): 239-249.

[70] LUNDAGER M H E. Crystallization of calcium carbonate in magnetic field in ordinary and heavy water［J］. J Cryst Growth, 2004, 267(1/2): 251-255.

[71] UYEDA C, KANO S, HISAYOSHI K, et al. Efficiency of magnetic alignment found in various paramagnetic and dia-magnetic solids detected by simple rotational oscillation of sample in microgravity［J］. Mater Trans, 2007, 48(11): 2893-2897.

[72] RABINOW J. The magnetic fluid clutch［J］. Electri Eng, 1948, 67(12): 1167-1167.

[73] DESHMUKH S S. Development, characterization and applications of magnetorheological fluid based “smart” materials on the macro-to-micro scale［D］. Massachusetts Institute of Technology, 2006.

[74] BICA I, LIU Y D, ChOI H J. Physical characteristics of magnetorheological suspensions and their applications［J］. J Ind Eng Chem, 2013, 19(2): 394-406.

[75] GEN S, PHUL P P. Rheological properties of magnetorheological fluids［J］. Smart Mater Struct, 2002, 11(1): 140.

[76] KHEDKAR Y M, BHAT S, ADARSHA H. A review of magnetorheological fluid damper technology and its applica-tions［J］. Int Rev Mech Eng, 2019, 13(4): 256-264.

[77] KUMAR J S, PAUL P S, RAGHUNATHAN G, et al. A review of challenges and solutions in the preparation and use of magnetorheological fluids［J］. Int J Mech Mater Eng, 2019, 14(1): 1-18.

[78] DE Vicente J, KLINGENBERG D J, HIDALGO-ALVAREZ R. Magnetorheological fluids: A review［J］. Soft Matter, 2011, 7(8): 3701-3710.

[79] ROZYNEK Z, ZACHER T, JANEK M, et al. Electric-field-induced structuring and rheological properties of kaolinite and halloysite［J］. Appl Clay Sci, 2013, 77: 1-9.

[80] IAN HERITAGE F M K A. Thermal acceleration of portland cement concretes using direct electronic curing［J］. ACI Mater J, 2000, 97(1): 37-40.

[81] BARHAM W S, ALBISS B, LATAYFEH O. Influence of magnetic field treated water on the compressive strength and bond strength of concrete containing silica fume［J］. J Build Eng, 2021, 33: 101544.

[83] AHMED H I. Behavior of magnetic concrete incorporated with Egyptian nano alumina［J］. Constr Build Mater, 2017, 150: 404-408.

[84] ZHOU K X, LU G W, ZHOU Q C, et al. Monte Carlo simulation of liquid water in a magnetic field［J］. J Appl Phys, 2000, 88(4): 1802-1805.

[85] AFSHIN H, N M G, KHORSHIDI N. Improving mechanical properties of high strength concrete by magnetic water technology［J］. Sci Iranica Trans A: Civ Eng, 2010, 17(1): 74-79.

[86] KHORSHIDI N, ANSARi M, BAYAT M. An investigation of water magnetization and its influence on some concrete specificities like fluidity and compressive strength［J］. Comput Concr, 2014, 13(5): 649-657.

[87] ESFAHANI A R, REISI M, MOHR B. Magnetized water effect on compressive strength and dosage of superplasticizers and water in self-compacting concrete［J］. J Mater Civ Eng, 2018, 30(3): 4018001-4018008.

[88] GHOLHAKI M, KHEYRODDIN A, HAJFOROUSH M, et al. An investigation on the fresh and hardened properties of self-compacting concrete incorporating magnetic water with various pozzolanic materials［J］. Constr Build Mater, 2018, 158(15): 173-180.

[89] GHORBANI S, GHORBANI S, TAO Z, et al. Effect of magnetized water on foam stability and compressive strength of foam concrete［J］. Constr Build Mater, 2019, 197: 280-290.

[90] KOZISSNIK B, BOHORQUEZ A C, DOBSON J, et al. Magnetic fluid hyperthermia: Advances, challenges, and opportunity［J］. Int J Hyperther, 2013, 29(8): 706-714.

[91] LAURENT S, DUTZ S, HFELI U O, et al. Magnetic fluid hyperthermia: Focus on superparamagnetic iron oxide nanoparticles［J］. Adv Colloid Interface Sci, 2011, 166(1/2): 8-23.

[92] HE Y B, LASKOWSKI J S, KLEIN B. Particle movement in non-Newtonian slurries: the effect of yield stress on dense medium separation［J］. Chem Eng Sci, 2001, 56(9): 2991-2998.

[93] RANKIN P J, HORVATH A T, KLINGENBERG D J. Magnetorheology in viscoplastic media［J］. Rheol Acta, 1999, 38(5): 471-477.

[95] WILSON J G, GUPTA N K. Equipment for the investigation of the accelerated curing of concrete using direct electrical conduction［J］. Measurement, 2004, 35(3): 243-250.

[96] TIAN W, LIU Y, QI B, et al. Enhanced effect of carbon nanofibers on heating efficiency of conductive cementitious composites under ohmic heating curing［J］. Cem Concr Compos, 2021, 117: 103904.

[97] CECINI D, AUSTIN S A, CAVALARO S, et al. Accelerated electric curing of steel-fibre reinforced concrete［J］. Constr Build Mater, 2018, 189: 192-204.

[98] YANG Z, XIE Y, HE J, et al. Experimental investigation on mechanical strength and microstructure of cement paste by electric curing with different voltage and frequency［J］. Constr Build Mater, 2021, 299: 123615.

[99] TIAN W, LIU Y, WANG M, et al. Performance and economic analyses of low-energy ohmic heating cured sustainable reactive powder concrete with dolomite powder as fine aggregates［J］. J Clean Prod, 2021, 329: 129692.

[100] KIM G M, YANG B J, RYU G U, et al. The electrically conductive carbon nanotube (CNT)/cement composites for accelerated curing and thermal cracking reduction［J］. Compos Struct, 2016, 158: 20-29.

[101] LIU Y, TIAN W, WANG M, et al. Rapid strength formation of on-site carbon fiber reinforced high-performance concrete cured by ohmic heating［J］. Constr Build Mater, 2020, 244: 118344.

[102] FERRNDEZ D, SAIZ P, Morón C, et al. Inductive method for the orientation of steel fibers in recycled mortars［J］. Constr Build Mater, 2019, 222: 243-253.

[103] VILLAR V P, MEDINA N F, HERNNDEZ-OLIVARES F. A model about dynamic parameters through magnetic fields during the alignment of steel fibres reinforcing cementitious composites［J］. Constr Build Mater, 2019, 201: 340-349.

[104] VILLAR V P, MEDINA N F. Alignment of hooked-end fibres in matrices with similar rheological behaviour to cementi-tious composites through homogeneous magnetic fields［J］. Constr Build Mater, 2018, 163: 256-266.

[105] ABAVISANI I, REZAIFAR O, KHEYRODDIN A. Magneto-electric control of scaled-down reinforced concrete beams［J］. Aci Struct J, 2017, 114(1): 233-244.

[106] ABAVISANI I, REZAIFAR O, KHEYRODDIN A. Alternating magnetic field effect on fine-aggregate steel chip-reinforced concrete properties［J］. J Mater Civ Eng, 2018, 30(6): 040180876.

[107] HAJFOROUSH M, KHEYRODDIN A, REZAIFAR O. Investigation of engineering properties of steel fiber reinforced concrete exposed to homogeneous magnetic field［J］. Constr Build Mater, 2020, 252: 119064.

[108] TIAN W, LIU Y, WANG W. Multi-structural evolution of conductive reactive powder concrete manufactured by enhanced ohmic heating curing［J］. Cem Concr Compos, 2021, 123: 104199.

[109] WEST R. P. ZHANG S J, MANDL J. Aligning long steel eibres in fresh concrete［C］.//Cement Combinations for Durable Concrete: Proceedings of the International Conference held at the University of Dundee, Scotland, UK on 5-7 July 2005. Thomas Telford Publishing, 2005: 467-476.

[110] WEST R P. Design issues in the alignment of steel fibres in concrete slabs using a magnetic fin［C］//Concrete Floors And Slabs: Proceedings of the International Seminar held at the University of Dundee, Scotland, UK on 5-6 September 2002. Thomas Telford Publishing, 2002: 35-44.

[111] WIJFFELS M J H, WOLFS R J M, SUIKER A S J, et al. Magnetic orientation of steel fibres in self-compacting concrete beams: Effect on failure behaviour［J］. Cem Concr Compos, 2017, 80: 342-355.