Materials-oriented integrated design and construction of structures in civil engineering—A review

Abstract

Design is a goal-oriented planning activity for creating products, processes, and systems with desired functions through specifications. It is a decision-making exploration: the design outcome may vary greatly depending on the designer’s knowledge and philosophy. Integrated design is one type of design philosophy that takes an interdisciplinary and holistic approach. In civil engineering, structural design is such an activity for creating buildings and infrastructures. Recently, structural design in many countries has emphasized a performance-based philosophy that simultaneously considers a structure’s safety, durability, serviceability, and sustainability. Consequently, integrated design in civil engineering has become more popular, useful, and important. Material-oriented integrated design and construction of structures (MIDCS) combine materials engineering and structural engineering in the design stage: it fully utilizes the strengths of materials by selecting the most suitable structural forms and construction methodologies. This paper will explore real-world examples of MIDCS, including the realization of MIDCS in timber seismic-resistant structures, masonry arch structures, long-span steel bridges, prefabricated/on-site extruded light-weight steel structures, fiber-reinforced cementitious composites structures, and fiber-reinforced polymer bridge decks. Additionally, advanced material design methods such as bioinspired design and structure construction technology of additive manufacturing are briefly reviewed and discussed to demonstrate how MIDCS can combine materials and structures. A unified strength-durability design theory is also introduced, which is a human-centric, interdisciplinary, and holistic approach to the description and development of any civil infrastructure and includes all processes directly involved in the life cycle of the infrastructure. Finally, this paper lays out future research directions for further development in the field.

Graphical abstract

Keywords

integrated design and construction / fiber-reinforced concrete / fiber-reinforced polymer / light-weight steel structures / digital fabrication / composites

References

[1] MamloukM S, Zaniewski J P. Materials for Civil and Construction Engineers. Upper Saddle River, NJ: Pearson Education Inc., 2006

[2] BurkittM C. Our Early Ancestors. New York: Benjamin Blom, 1972

[3] BordesF. The Old Stone Age. New York: McGraw-Hill, 1968

[4] Flaga K. Advances in materials applied in civil engineering. Journal of Materials Processing Technology, 2000, 106( 1–3): 173– 183

[5] ShiC J, Mo Y L. High-performance Construction Materials: Science and Applications. Singapore: World Scientific, 2008

[6] AdamJ P. Roman Building: Materials and Technologies. London: B.T. Batsford, 1994

[7] Ku H, Wang H, Pattarachaiyakoop N, Trada M. A review on the tensile properties of natural fiber reinforced polymer composites. Composites. Part B, Engineering, 2011, 42( 4): 856– 873

[8] Aslani F, Uy B, Tao Z, Mashiri F. Behaviour and design of composite columns incorporating compact high-strength steel plates. Journal of Constructional Steel Research, 2015, 107 : 94– 110

[9] Wangler T, Roussel N, Bos F P, Salet T A M, Flatt R J. Digital concrete: A review. Cement and Concrete Research, 2019, 123 : 105780–

[10] LiV C. Engineered Cementitious Composites (ECC) Bendable Concrete for Sustainable and Resilient Infrastructure. Berlin: Springer, 2019

[11] Yang H, Cui H, Tang W, Li Z, Han N, Xing F. A critical review on research progress of graphene/cement based composites. Composites. Part A, Applied Science and Manufacturing, 2017, 102 : 273– 296

[12] Sanchez F, Sobolev K. Nanotechnology in concrete––A review. Construction & Building Materials, 2010, 24( 11): 2060– 2071

[13] Liew J Y R, Xiong M X, Xiong D X. Design of high strength concrete filled tubular columns for tall buildings. International Journal of High-Rise Buildings, 2014, 3( 3): 221– 251

[14] Sakkas K, Nomikos P, Sofianos A, Panias D. Inorganic polymeric materials for passive fire protection of underground constructions. Fire and Materials, 2013, 37( 2): 140– 150

[15] Qin S, Gao Z. Developments and prospects of long-span high-speed railway bridge technologies in China. Bridge Engineering and Tunnel Engineering, 2017, 3( 6): 787– 794

[16] Huang W, Pei M, Liu X, Wei Y. Design and construction of super-long span bridges in China: Review and future perspectives. Frontiers of Structural and Civil Engineering, 2020, 14( 4): 803– 838

[17] GopalakrishnanK, BirgissonB, TaylorP, Attoh-OkineN O. Nanotechnology in Civil Infrastructure: A paradigm shift. Berlin: Springer, 2011

[18] NationalResearch Council. Materials Science and Engineering: Forging Stronger Links to Users. Washington, D.C.: The National Academies Press, 1999

[19] NellippallilA B, AllenJ K, Gautham B P, SinghA K, MistreeF. Architecting Robust Co-design of Materials, Products, And Manufacturing Processes. Switzerland: Springer Nature, 2020

[20] Li V C. Integrated structures and materials design. Materials and Structures, 2007, 40( 4): 387– 396

[21] Svenum I H, Ringdalen I G, Bleken F L, Friis J, Höche D, Swang O. Structure, hydration, and chloride ingress in C-S-H: Insight from DFT calculations. Cement and Concrete Research, 2020, 129 : 105965–

[22] ManzanoH, Enyashin A N, DoladoJ S, AyuelaA, Frenzel J, SeifertG. Do cement nanotubes exist? Advanced Materials, 2012, 24(24): 3239–3245

[23] Zuo Y, Ye G. Geomicro3D: A novel numerical model for simulating the reaction process and microstructure formation of alkali-activated slag. Cement and Concrete Research, 2021, 141 : 106328–

[24] Kunhi Mohamed A, Moutzouri P, Berruyer P, Walder B J, Siramanont J, Harris M, Negroni M, Galmarini S C, Parker S C, Scrivener K L, Emsley L, Bowen P. The atomic-level structure of cementitious calcium aluminate silicate hydrate. Journal of the American Chemical Society, 2020, 142( 25): 11060– 11071

[25] Riggio M D, D’Ayala D, Parisi M A, Tardini C. Assessment of heritage timber structures: Review of standards, guidelines and procedures. Journal of Cultural Heritage, 2018, 31 : 220– 235

[26] Marzi T. Nanostructured materials for protection and reinforcement of timber structures: A review and future challenges. Construction & Building Materials, 2015, 97 : 119– 130

[27] LaboratoryF P. Wood Handbook—Wood as An Engineering Material. Madison, WI: Department of Agriculture, Forest Service, Forest Products Laboratory, 2010

[28] WangX L. Research on evaluation method of reliability-based residual life of historic timber structure. Dissertation for the Doctoral Degree. Wuhan: Wuhan University of Technology, 2008 (in Chinese)

[29] Loss C, Tannert T, Tesfamariam S. State-of-the-art review of displacement-based seismic design of timber buildings. Construction & Building Materials, 2018, 191 : 481– 497

[30] Kirkham W J, Gupta R, Miller T H. State of the art: Seismic behavior of wood-frame residential structures. Journal of Structural Engineering, 2014, 140( 4): 04013097–

[31] ZhaoH T, Zhang F L, XueJ Y, XieQ F, ZhangX C, HuoM. Research review on structural performance of ancient timber structure. Journal of Building Structures, 2012, 33(8): 1–10 (in Chinese)

[32] LiuJ W, Li T Y. Quasi-static loading calculation analysis of traditional timber structure with the frame of dougong-beam-column. In: 2020 Industrial Building Academic Exchange Conference. Beijing: Industrial Construction Magazine, 2020: 297–301 (in Chinese)

[33] WuY J, Song X B, GuX L. Lateral load-displacement model of dou-gong connections based on rocking and racking coordination. Journal of Building Structures, 2020: 1–7 (in Chinsese)

[34] MengX J. Study on The Seismic Performance and Seismic Mechanism of Traditional Timber Structure in Song Dynasty. Dissertation for the Doctoral Degree. Taiyuan: Taiyuan University of Technology, 2019 (in Chinese)

[35] Qiao G, Li T, Chen Y F. Assessment and retrofitting solutions for an historical wooden pavilion in China. Construction & Building Materials, 2016, 105 : 435– 447

[36] Chen Z, Zhu E, Pan J, Wu G. Energy-dissipation performance of typical beam-column joints in Yingxian Wood Pagoda: Experimental study. Journal of Performance of Constructed Facilities, 2016, 30( 3): 04015028–

[37] Sha B, Xie L, Yong X, Li A. An experimental study of the combined hysteretic behavior of dougong and upper frame in Yingxian Wood Pagoda. Construction and Building Materials, 2021, 305 : 124723–

[38] Chen J, Li T, Yang Q, Shi X, Zhao Y. Degradation laws of hysteretic behaviour for historical timber buildings based on pseudo-static tests. Engineering Structures, 2018, 156 : 480– 489

[39] Zhang X, Xue J, Zhao H, Sui Y. Experimental study on chinese ancient timber-frame building by shaking table test. Structural Engineering and Mechanics, 2011, 40( 4): 453– 469

[40] Chen Z, Zhu E, Lam F, Pan J. Structural performance of Dou-gong brackets of yingxian wood pagoda under vertical load—An experimental study. Engineering Structures, 2014, 80 : 274– 288

[41] ZhangP C. Study on structure and its seismic behavior development of Chinese ancient timber structure building. Dissertation for the Doctoral Degree. Xi’an: Xi’an University of Architecture & Technology, 2003 (in Chinese)

[42] Chun Q, Yue Z, Pan J. Experimental study on seismic characteristics of typical mortise-tenon joints of chinese southern traditional timber frame buildings. Science China. Technological Sciences, 2011, 54( 9): 2404– 2411

[43] Chen L, Li S, Wang Y, Zhao Y, Zhang M, Song X, Li X, Teng W, Jiang L. Experimental study on the seismic behaviour of mortise-tenon joints of the ancient timbers. Structural Engineering International, 2017, 27( 4): 512– 519

[44] Suzuki Y, Maeno M. Structural mechanism of traditional wooden frames by dynamic and static tests. Structural Control and Health Monitoring, 2006, 13( 1): 508– 522

[45] Li X, Zhao J, Ma G, Chen W. Experimental study on the seismic performance of a double-span traditional timber frame. Engineering Structures, 2015, 98 : 141– 150

[46] ZhouY, Lv X L. State-of-the-art on rocking and self-centering structures. Journal of Building Structures., 2011, 32(9): 1–10 (in Chinese)

[47] JingL, Yin S P, XuS L. State-of-the-art review on strengthening masonry structures with fabric-reinforced cementitious matrix. China Civil Engineering Journal, 2020, 53(6): 79–89 (in Chinese)

[48] Zampieri P, Simoncello N, Tetougueni C D, Pellegrino C. A review of methods for strengthening of masonry arches with composite materials. Engineering Structures, 2018, 171 : 154– 169

[49] Theodossopoulos D, Sinha B. A review of analytical methods in the current design processes and assessment of performance of masonry structures. Construction & Building Materials, 2013, 41 : 990– 1001

[50] HendryA, Sinha B, DaviesS. Design of Masonry Structures. London: E & FN Spon, 2004

[51] Hendry E A W. Masonry walls: materials and construction. Construction & Building Materials, 2001, 15( 8): 323– 330

[52] Shadlou M, Ahmadi E, Kashani M M. Micromechanical modelling of mortar joints and brick-mortar interfaces in masonry structures: A review of recent developments. Structures, 2020, 23 : 831– 844

[53] Chewe Ngapeya G G, Waldmann D, Scholzen F. Impact of the height imperfections of masonry blocks on the load bearing capacity of dry-stack masonry walls. Construction & Building Materials, 2018, 165 : 898– 913

[54] Bernat-Maso E, Gil L, Roca P. Numerical analysis of the load-bearing capacity of brick masonry walls strengthened with textile reinforced mortar and subjected to eccentric compressive loading. Engineering Structures, 2015, 91 : 96– 111

[55] Mojsilović N, Stewart M G. Probability and structural reliability assessment of mortar joint thickness in load-bearing masonry walls. Structural Safety, 2015, 52 : 209– 218

[56] Narayanan N, Ramamurthy K. Structure and properties of aerated concrete: a review. Cement and Concrete Composites, 2000, 22( 5): 321– 329

[57] Pelà L, Cervera M, Roca P. An orthotropic damage model for the analysis of masonry structures. Construction & Building Materials, 2013, 41 : 957– 967

[58] Asteris P G, Plevris V. Anisotropic masonry failure criterion using artificial neural networks. Neural Computing & Applications, 2017, 28( 8): 2207– 2229

[59] Bertolesi E, Adam J M, Rinaudo P, Calderón P A. Research and practice on masonry cross vaults—A review. Engineering Structures, 2019, 180 : 67– 88

[60] Wu Y, Kang D, Yang Y. Seismic performance of steel and concrete composite shear walls with embedded steel truss for use in high-rise buildings. Engineering Structures, 2016, 125 : 39– 53

[61] Zhang L, Qiu G, Chen Z. Structural health monitoring methods of cables in cable-stayed bridge: A review. Measurement, 2021, 168 : 108343–

[62] Gedge G. Structural uses of stainless steel-buildings and civil engineering. Journal of Constructional Steel Research, 2008, 64( 11): 1194– 1198

[63] Jiang S, Chai F, Su H, Yang C. Influence of chromium on the flow-accelerated corrosion behavior of low alloy steels in 3.5% NaCl solution. Corrosion Science, 2017, 123 : 217– 227

[64] Ashong A N, Na M Y, Kim H C, Noh S H, Park T, Chang H J, Kim J H. Influence of manganese on the microstructure and mechanical properties of oxide-dispersion-strengthened steels. Materials & Design, 2019, 182 : 107997–

[65] Kamimura T, Stratmann M. The influence of chromium on the atmospheric corrosion of steel. Corrosion Science, 2001, 43( 3): 429– 447

[66] Yuan X, Li W, Pang Q, Zhang C, Lu G. Study on the performance and strain aging behavior of solid-solution state low-carbon steel. Materials Science and Engineering A, 2018, 726 : 282– 287

[67] Zhou X, Zhang X. Thoughts on the development of bridge technology in China. Engineering, 2019, 5( 6): 1120– 1130

[68] ZhangZ. Mechanism and mechanical behavior of delamination and slippage between wires or strands of cables for large-span bridges. Dissertation for the Doctoral Degree. Guangzhou: South China University of Technology, 2016 (in Chinese)

[69] Zhao R, Yuan Y, Wei X, Shen R, Zheng K, Qian Y, Pu Q, Zhang Q, Liao H, Li X, Zhao C, Xu G, Gou H, Zhang Z, Yu C. Review of annual progress of bridge engineering in 2019. Advances in Bridge Engineering, 2020, 1( 1): 1– 57

[70] YuW, LaBoube R A. Cold-formed Steel Design. Hoboken, NJ: John Wiley & Sons, 2020

[71] Ríos J D, Leiva C, Ariza M P, Seitl S, Cifuentes H. Analysis of the tensile fracture properties of ultra-high-strength fiber-reinforced concrete with different types of steel fibers by X-ray tomography. Materials & Design, 2019, 165 : 107582–

[72] Niu Y, Huang H, Zhang J, Jin W, Wei J, Yu Q. Development of the strain field along the crack in ultra-high-performance fiber-reinforced concrete (UHPFRC) under bending by digital image correlation technique. Cement and Concrete Research, 2019, 125 : 105821–

[73] Yoo D, Banthia N. Mechanical properties of ultra-high-performance fiber-reinforced concrete: A review. Cement and Concrete Composites, 2016, 73 : 267– 280

[74] Pereira E B, Fischer G, Barros J A O. Effect of hybrid fiber reinforcement on the cracking process in fiber reinforced cementitious composites. Cement and Concrete Composites, 2012, 34( 10): 1114– 1123

[75] Cao M, Xie C, Guan J. Fracture behavior of cement mortar reinforced by hybrid composite fiber consisting of CaCO₃ whiskers and pva-steel hybrid fibers. Composites. Part A, Applied Science and Manufacturing, 2019, 120 : 172– 187

[76] Ragalwar K, Heard W F, Williams B A, Kumar D, Ranade R. On enhancing the mechanical behavior of ultra-high performance concrete through multi-scale fiber reinforcement. Cement and Concrete Composites, 2020, 105 : 103422–

[77] Huang H, Wang R, Gao X. Improvement effect of fiber alignment on resistance to elevated temperature of ultra-high performance concrete. Composites. Part B, Engineering, 2019, 177 : 107454–

[78] Habel K, Viviani M, Denarié E, Brühwiler E. Development of the mechanical properties of an ultra-high performance fiber reinforced concrete (UHPFRC). Cement and Concrete Research, 2006, 36( 7): 1362– 1370

[79] Huang B, Li Q, Xu S, Zhou B. Strengthening of reinforced concrete structure using sprayable fiber-reinforced cementitious composites with high ductility. Composite Structures, 2019, 220 : 940– 952

[80] Li V C, Bos F P, Yu K, McGee W, Ng T Y, Figueiredo S C, Nefs K, Mechtcherine V, Nerella V N, Pan J, van Zijl G P A G, Kruger P J. On the emergence of 3D printable engineered, strain hardening cementitious composites (ECC/SHCC). Cement and Concrete Research, 2020, 132 : 106038–

[81] Yu K, Zhu W, Ding Y, Lu Z, Yu J, Xiao J. Micro-structural and mechanical properties of ultra-high performance engineered cementitious composites (UHP-ECC) incorporation of recycled fine powder (RPC). Cement and Concrete Research, 2019, 124 : 105813–

[82] Wang W, Liu J, Agostini F, Davy C A, Skoczylas F, Corvez D. Durability of an ultra high performance fiber reinforced concrete (UHPFRC) under progressive aging. Cement and Concrete Research, 2014, 55 : 1– 13

[83] Wu Z, Shi C, He W, Wang D. Static and dynamic compressive properties of ultra-high performance concrete (UHPC) with hybrid steel fiber reinforcements. Cement and Concrete Composites, 2017, 79 : 148– 157

[84] Cao S, Hou X, Rong Q. Dynamic compressive properties of reactive powder concrete at high temperature: A review. Cement and Concrete Composites, 2020, 110 : 103568–

[85] Voo Y L, Nematollahi B, Said A B B M, Gopal B A, Yee T S. Application of ultra high performance fiber reinforced concrete-the malaysia perspective. International Journal of Sustainable Construction Engineering & Technology, 2012, 3( 1): 26– 44

[86] Foglar M, Hajek R, Fladr J, Pachman J, Stoller J. Full-scale experimental testing of the blast resistance of HPFRC and UHPFRC bridge decks. Construction & Building Materials, 2017, 145 : 588– 601

[87] Zhou M, Lu W, Song J, Lee G C. Application of ultra-high performance concrete in bridge engineering. Construction & Building Materials, 2018, 186 : 1256– 1267

[88] Schleiting M, Wetzel A, Krooß P, Thiemicke J, Niendorf T, Middendorf B, Fehling E. Functional microfibre reinforced ultra-high performance concrete (FMF-HUPC). Cement and Concrete Research, 2020, 130 : 105993–

[89] Balea A, Fuente E, Blanco A, Negro C. Nanocelluloses: Natural-based materials for fiber-reinforced cement composites. A critical review. Polymers, 2019, 11( 3): 518–

[90] Pakravan H R, Ozbakkaloglu T. Synthetic fibers for cementitious composites: A critical and in-depth review of recent advances. Construction & Building Materials, 2019, 207 : 491– 518

[91] Bakis C E, Bank L C, Brown V L, Cosenza E, Davalos J F, Lesko J J, Machida A, Rizkalla S H, Triantafillou T C. Fiber-reinforced polymer composites for construction––Sate-of-the-art review. Journal of Composites for Construction, 2002, 6( 2): 73– 87

[92] Mara V, Haghani R. Review of FRP decks: Structural and in-service performance. Proceedings of the Institution of Civil Engineers––Bridge Engineering, 2015, 168( 4): 308– 329

[93] Mara V, Haghani R, Harryson P. Bridge decks of fibre reinforced polymer (FRP): A sustainable solution. Construction & Building Materials, 2014, 50 : 190– 199

[94] Silva M A L, Dedigamuwa K V, Gamage J C P H. Performance of severely damaged reinforced concrete flat slab-column connections strengthened with carbon fiber reinforced polymer. Composite Structures, 2021, 255 : 112963–

[95] Al-Akhras N, Al-Mashraqi M. Repair of corroded self-compacted reinforced concrete columns loaded eccentrically using carbon fiber reinforced polymer. Case Studies in Construction Materials, 2021, 14 : e00476–

[96] Dong S, Li C, Xian G. Environmental impacts of glass- and carbon-fiber-reinforced polymer bar-reinforced seawater and sea sand concrete beams used in marine environments: An LCA case study. Polymers, 2021, 13( 1): 154–

[97] Medina L, Schledjewski R, Schlarb A. Process related mechanical properties of press molded natural fiber reinforced polymers. Composites Science and Technology, 2009, 69( 9): 1404– 1411

[98] Balla V K, Kate K H, Satyavolu J, Singh P, Tadimeti J G D. Additive manufacturing of natural fiber reinforced polymer composites: Processing and prospects. Composites. Part B, Engineering, 2019, 174 : 106956–

[99] WuZ S, Liu J P, ZouD H, WangX, ShiJ. Status quo and development trend of light-weight, high-strength, and durable structural materials applied in marine bridge engineering. Strategic Study of Chinese Academy of Engineering, 2019, 21(3): 31–40 (in Chinese)

[100] Chen A, Davalos J F. Strength evaluations of sinusoidal core for FRP sandwich bridge deck panels. Composite Structures, 2010, 92( 7): 1561– 1573

[101] Bank L C. Application of FRP composites to bridges in the USA. In: Proceedings of the International Colloquium on Application of FRP to Bridges. Tokyo: Japan Society of Civil Engineers (JSCE), 2006, 9–16

[102] Khan M S, Sanchez F, Zhou H. 3-D printing of concrete: Beyond horizons. Cement and Concrete Research, 2020, 133 : 106070–

[103] Mechtcherine V, Bos F P, Perrot A, Da Silva W R L, Nerella V N, Fataei S, Wolfs R J M, Sonebi M, Roussel N. Extrusion-based additive manufacturing with cement-based materials—Production steps, processes, and their underlying physics: A review. Cement and Concrete Research, 2020, 132 : 106037–

[104] Zhang J, Wang J, Dong S, Yu X, Han B. A review of the current progress and application of 3D printed concrete. Composites. Part A, Applied Science and Manufacturing, 2019, 125 : 105533–

[105] Buswell R A, Da Silva W R L, Bos F P, Schipper H R, Lowke D, Hack N, Kloft H, Mechtcherine V, Wangler T, Roussel N. A process classification framework for defining and describing digital fabrication with concrete. Cement and Concrete Research, 2020, 134 : 106068–

[106] Mohan M K, Rahul A V, De Schutter G, Van Tittelboom K. Extrusion-based concrete 3D printing from a material perspective: A state-of-the-art review. Cement and Concrete Composites, 2021, 115 : 103855–

[107] Guo X, Yang J, Xiong G. Influence of supplementary cementitious materials on rheological properties of 3D printed fly ash based geopolymer. Cement and Concrete Composites, 2020, 114 : 103820–

[108] Panda B, Unluer C, Tan M J. Investigation of the rheology and strength of geopolymer mixtures for extrusion-based 3D printing. Cement and Concrete Composites, 2018, 94 : 307– 314

[109] Park S H, Su R, Jeong J, Guo S, Qiu K, Joung D, Meng F, McAlpine M C. 3D printed polymer photodetectors. Advanced Materials, 2018, 30( 40): 1803980–

[110] Wang X, Jiang M, Zhou Z, Gou J, Hui D. 3D printing of polymer matrix composites: A review and prospective. Composites. Part B, Engineering, 2017, 110 : 442– 458

[111] Dizon J R C, Espera A H Jr, Chen Q, Advincula R C. Mechanical characterization of 3D-printed polymers. Additive Manufacturing, 2018, 20 : 44– 67

[112] Mohammadizadeh M, Imeri A, Fidan I, Elkelany M. 3D printed fiber reinforced polymer composites––Structural analysis. Composites. Part B, Engineering, 2019, 175 : 107112–

[113] Kabir S M F, Mathur K, Seyam A M. A critical review on 3D printed continuous fiber-reinforced composites: History, mechanism, materials and properties. Composite Structures, 2020, 232 : 111476–

[114] Herzog D, Seyda V, Wycisk E, Emmelmann C. Additive manufacturing of metals. Acta Materialia, 2016, 117 : 371– 392

[115] Vyatskikh A, Delalande S, Kudo A, Zhang X, Portela C M, Greer J R. Additive manufacturing of 3D nano-architected metals. Nature Communications, 2018, 9( 1): 593–

[116] Aucott L, Dong H, Mirihanage W, Atwood R, Kidess A, Gao S, Wen S, Marsden J, Feng S, Tong M, Connolley T, Drakopoulos M, Kleijn C R, Richardson I M, Browne D J, Mathiesen R H, Atkinson H V. Revealing internal flow behaviour in arc welding and additive manufacturing of metals. Nature Communications, 2018, 9( 1): 5414–

[117] Ma G, Wang L. A critical review of preparation design and workability measurement of concrete material for largescale 3D printing. Frontiers of Structural and Civil Engineering, 2018, 12( 3): 382– 400

[118] Reiter L, Wangler T, Anton A, Flatt R J. Setting on demand for digital concrete––Principles, measurements, chemistry, validation. Cement and Concrete Research, 2020, 132 : 106047–

[119] Gosselin C, Duballet R, Roux P, Gaudillière N, Dirrenberger J, Morel P. Large-scale 3D printing of ultra-high performance concrete––A new processing route for architects and builders. Materials & Design, 2016, 100 : 102– 109

[120] Ha N S, Lu G. A review of recent research on bio-inspired structures and materials for energy absorption applications. Composites. Part B, Engineering, 2020, 181 : 107496–

[121] Wang F, Du Y, Jiao D, Zhang J, Zhang Y, Liu Z, Zhang Z. Wood-inspired cement with high strength and multifunctionality. Advancement of Science, 2020, 8( 3): 2000096–

[122] Pan H, She W, Zuo W, Zhou Y, Huang J, Zhang Z, Geng Z, Yao Y, Zhang W, Zheng L, Miao C, Liu J. Hierarchical toughening of a biomimetic bulk cement composite. ACS Applied Materials & Interfaces, 2020, 12( 47): 53297– 53309

[123] Picker A, Nicoleau L, Burghard Z, Bill J, Zlotnikov I, Labbez C, Nonat A, Cölfen H. Mesocrystalline calcium silicate hydrate: A bioinspired route toward elastic concrete materials. Science Advances, 2017, 3( 11): e1701216–

[124] LiZ. Advanced Concrete Technology. Hoboken, NJ: John Wiley & Sons, 2011

[125] Hou D, Zhang W, Sun M, Wang P, Wang M, Zhang J, Li Z. Modified Lucas-Washburn function of capillary transport in the calcium silicate hydrate gel pore: A coarse-grained molecular dynamics study. Cement and Concrete Research, 2020, 136 : 106166–

[126] Hou D, Wu C, Yang Q, Zhang W, Lu Z, Wang P, Li J, Ding Q. Insights on the molecular structure evolution for tricalcium silicate and slag composite: From 29Si and 27Al NMR to molecular dynamics. Composites. Part B, Engineering, 2020, 202 : 108401–

[127] HanB, DingS, WangJ, Ou J. Nano-engineered Cementitious Composites-Principles and Practices. Singapore: Springer, 2019

[128] Lothenbach B, Scrivener K, Hooton R D. Supplementary cementitious materials. Cement and Concrete Research, 2011, 41( 12): 1244– 1256

[129] Ming X, Cao M. Development of eco-efficient cementitious composites with high fire resistance and self-healing abilities—A review. Resources, Conservation and Recycling, 2020, 162 : 105017–

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