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TECHNICAL PAPER




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             making process, © Hasan Haroglu, 2010.             [15]  P. Shakor, S. Nejadi, G. Paul, An Investigation into the
                                                                   Effects of Deposition Orientation of Material on the
         [2]  P. Shakor, S. Nejadi, G. Paul, S. Malek, Review of Emerging   Mechanical Behaviours of the Cementitious Powder and
             Additive Manufacturing Technologies in 3D Printing of   Gypsum Powder in Inkjet 3 D Printing, Proceedings of the
             Cementitious Materials in the Construction Industry,   36  ISARC, IAARC, Banff, Alberta, Canada, 2019, pp. 42-49.
                                                                     th
             Frontiers in Built Environment 4(85) (2019).
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         [3]  F. Hamidi, F. Aslani, Additive manufacturing of cementitious   of structures 3D printed with cementitious powders,
             composites: Materials, methods, potentials, and challenges,   Construction and Building Materials 93 (2015) 486-497.
             Construction and Building Materials 218 (2019) 582-609.
                                                                [17]  P. Feng, X. Meng, H. Zhang, Mechanical behavior of FRP
         [4]  D. Lowke, E. Dini, A. Perrot, D. Weger, C. Gehlen,    sheets reinforced 3D elements printed with cementitious
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             construction – Possibilities and challenges, Cement and
             Concrete Research  (2018).                         [18]  3DSystems, ZP151 Powder Safety Data Sheet, 2013.
         [5]  P. Shakor, J. Renneberg, S. Nejadi, G. Paul, Optimisation of   [19]  A200MIXER, A200 hobart mixer speed specification,
             different concrete mix designs for 3D Printing by utilising   hobartcorp.
             6DOF industrial robot, ISARC 2017-Proceedings of the 34    [20]  J. Hill, J. Orr, N. Dunne, In vitro study investigating the
                                                          th
             International Symposium on Automation and Robotics in   mechanical properties of acrylic bone cement containing
             Construction, 2017.                                    calcium carbonate nanoparticles, Journal of Materials
                                                                    Science: Materials in Medicine 19(11) (2008) 3327-3333.
         [6]  P. Shakor, S. Nejadi, G. Paul, A Study into the Effect of
             Different Nozzles Shapes and Fibre-Reinforcement in 3D   [21]  B. Lothenbach, F. Winnefeld, C. Alder, E. Wieland, P. Lunk,
             Printed Mortar, Materials 12(10) (2019) 1708.          Effect of temperature on the pore solution, microstructure
                                                                    and hydration products of Portland cement pastes, Cement
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             of 3D concrete printing systems and materials properties:
             current status and future research prospects, Rapid   [22]  M.a.a. Abd elaty, Compressive strength prediction of
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                                                                    HBRC Journal 10(2) (2014) 145-155.
         [8]  A.V. Rahul, M. Santhanam, H. Meena, Z. Ghani, 3D printable
             concrete: Mixture design and test methods, Cement and   [23]  M.N. Amin, K. Khan, M.U. Saleem, N. Khurram, M.U.K.
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                                                                    strength of mortar containing lime stone quarry dust and
         [9]  P. Shakor, J. Sanjayan, A. Nazari, S. Nejadi, Modified 3D   industrial granite sludge, Materials 10(6) (2017) 642.
             printed powder to cement-based material and mechanical
             properties of cement scaffold used in 3D printing,   [24]  PortlandCementAssociation, Ettringite Formation and the
             Construction and Building Materials 138 (2017) 398-409.  Performance of Concrete, concrete information, USA.
         [10]  P. Shakor, S. Nejadi, G. Paul, J. Sanjayan, A Novel   [25]  3DSystems, ZB63 Safety Data Sheet, 2012.
             Methodology of Powder-based Cementitious Materials   [26]  E. Altan, S.T. Erdoğan, Alkali activation of a slag at ambient
             in 3D Inkjet Printing for Construction Applications Sixth   and elevated temperatures, Cement and Concrete
             International Conference on the Durability of Concrete   Composites 34(2) (2012) 131-139.
             Structures, Whittles Publishing, Leeds, UK, 2018.
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         [11]  P. Shakor, S. Nejadi, G. Paul, J. Sanjayan, A. Nazari,   mechanical effects in mortar beams subjected to water
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             Effect of Elevated Temperature on Three-Dimensional    266-272.
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             Materials Journal 116(2) (2019) 55-67.
                                                                    hydrolysis and condensation reactions during geopolymer
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                                                                [29]  S. Mandal, B. Basu, Probing the influence of post-
         [13]  S. Aydın, B. Baradan, Mechanical and microstructural   processing on microstructure and in situ compression failure
             properties of heat cured alkali-activated slag mortars,   with in silico modeling of 3D-printed scaffolds, Journal of
             Materials & Design 35 (2012) 374-383.                  Materials Research 33(14) (2018) 2062-2076.
         [14]  C. Famy, K.L. Scrivener, A. Atkinson, A.R. Brough, Influence   [30]  S. Mandal, S. Meininger, U. Gbureck, B. Basu, 3D powder
             of the storage conditions on the dimensional changes of   printed tetracalcium phosphate scaffold with phytic


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