Abstract
Invariably all Additive Manufacturing (AM) processes occur in a narrowly controlled range of temperature and/or pressure. All established AM processes for metals and non-metals occur at ambient or higher temperatures. However, in recent years, AM processes are being developed for unique materials such as bio gels, medicines, colloids, aqueous solutions, etc., with lower working temperatures, sometimes even below 0 °C. Authors use the term Sub-Zero Additive Manufacturing (SZ-AM) for all such processes. The present review article gathers the work related to SZ-AM reported in recent years. This review article provides a bird-eye view of a wide range of applications and technical details of SZ-AM in numerous fields such as manufacturing, medicine, architecture, etc. The review helps to understand the challenges and the future scope of developing commercial SZ-AM machines. The case studies help determine the feasibility of using the SZ-AM process for unique materials for potential applications.
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References
Campbell I, Bourell D, Gibson I (2012) Additive manufacturing: rapid prototyping comes of age. Rapid Prototyp J 18(4):255–258
Zhang W, Leu MC, Ji Z, Yan Y (1999) Rapid freezing prototyping with water. Mater Des 20(2–3):139–145
Pallottino F et al (2016) Printing on food or food printing: a review. Food Bioprocess Technol 9(5):725–733
Tetik H et al. High Speed In-situ X-ray Imaging of 3D Freeze Printing of Aerogels, Addit Manuf 36(May): 101513, 2020.
Zhang HZ et al (2015) Portable, easy-to-operate, and antifouling microcapsule array chips fabricated by 3d ice printing for visual target detection. Anal Chem 87(12):6397–6402
Zheng F, Wang Z, Huang J, Li Z (2020) Inkjet printing-based fabrication of microscale 3D ice structures, Microsystems Nanoeng 6(1).
Ionescu N, Vian A, Savin A, Trifnescu M TEHNOMUS-new technologies and products in machine manufacturing technologies technical solutions to design an equipment for ice parts rapid prototyping, pp 101–106.
Tan Z, Parisi C, Di Silvio L, Dini D, Forte AE (2017) Cryogenic 3D printing of super soft hydrogels. Sci Rep 7(1):1–11
Leu MC, Garcia DA (2014) Development of freeze-form extrusion fabrication with use of sacrificial material. J Manuf Sci Eng Trans ASME 136(6):1–9
Huang T, Mason MS, Hilmas GE, Leu MC (2006) Freeze-form extrusion fabrication of ceramic parts. Virtual Phys Prototyp 1(2):93–100
Zhao D, Han A, Qiu M (2019) Ice lithography for 3D nanofabrication. Sci Bull 64(12):865–871
Zhang W, Leu MC Investment casting with ice patterns made by rapid freeze prototyping, pp 66–72.
Liu Q, Leu MC, Richards VL, Schmitt SM (2004) Dimensional accuracy and surface roughness of rapid freeze prototyping ice patterns and investment casting metal parts. Int J Adv Manuf Technol 24(7–8):485–495
Huang C, Leu MC, Richards VL (2004) Investment casting with ice patterns and comparison, NSF Des Manuf Grantees Conf pp 1–7.
Liu Q, Sui G, Leu MC (2002) Experimental study on the ice pattern fabrication for the investment casting by rapid freeze prototyping (RFP). Comput Ind 48(3):181–197
Richards VL et al. (2008) Rapid freeze prototyping of investment cast thin-wall metal matrix compostites I—pattern build and molding, Mater Soc Annu Meet pp 143–156.
Liu Q, Leu MC (1997) Study of ceramic slurries for investment casting with ice patterns, Bachelor degree thesis pp 602–611.
Jin J, Chen Y (2017) Highly removable water support for Stereolithography. J Manuf Process 28:541–549
Chen Y, Jin J SLA Additive manufacturing using frozen supports of non—sla material, US 10,894,354 B2, 2021.
Shakor P, Nejadi S, Paul G (2020) Investigation into the effect of delays between printed layers on the mechanical strength of inkjet 3DP mortar. Manuf Lett 23:19–22
. Zheng F, Huang J, Li Z (2019) Fabrication of 3D Micro Ice Structures Based on Inkjet Printing. In: Proc. IEEE Int. Conf. Micro Electro Mech. Syst., 2019-Janua, no. January, pp 368–371.
Hong Y et al (2018) Three-dimensional in situ electron-beam lithography using water ice. Nano Lett 18(8):5036–5041
Fujita H , Nakano A, Hada H (2017) Elsa: temporary ice jet 3d printing, TEI 2017—Proc. 11th Int. Conf. Tangible, Embed. Embodied Interact, pp 559–563.
Gannarapu A, Gozen BA (2016) Freeze-printing of liquid metal alloys for manufacturing of 3D, conductive, and flexible networks, Adv Mater Technol 1(4).
Adamkiewicz M, Rubinsky B (2015) Cryogenic 3D printing for tissue engineering. Cryobiology 71(3):518–521
Kam D et al (2019) Direct cryo writing of aerogels via 3D printing of aligned cellulose nanocrystals inspired by the plant cell wall. Colloids and Interfaces 3(2):46
Zhang W et al. (2019) Fabrication and characterization of porous polycaprolactone scaffold via extrusion-based cryogenic 3D printing for tissue engineering, Mater. Des., 180:107946.
Wang C, Zhao Q, Wang M (2017) Cryogenic 3D printing for producing hierarchical porous and rhBMP-2-loaded Ca-P/PLLA nanocomposite scaffolds for bone tissue engineering, Biofabrication, 9(2).
Wang C et al (2021) Cryogenic 3D printing of dual-delivery scaffolds for improved bone regeneration with enhanced vascularization. Bioact Mater 6(1):137–145
Lee JY, Kim GH (2020) A cryopreservable cell-laden GelMa-based scaffold fabricated using a 3D printing process supplemented with an in situ photo-crosslinking. J Ind Eng Chem 85:249–257
Wang Z, Florczyk SJ (2020) Freeze-FRESH: A 3D printing technique to produce biomaterial scaffolds with hierarchical porosity, Materials (Basel) 13(2).
Sun J, Zhou W, Yan L, Huang D, ya Lin L (2018) Extrusion-based food printing for digitalized food design and nutrition control, J Food Eng 220: 1–11
Zawada B, Ukpai G, Powell-Palm MJ, Rubinsky B (2018) Multi-layer cryolithography for additive manufacturing. Prog Addit Manuf 3(4):245–255
Dick A, Bhandari B, Prakash S (2019) 3D printing of meat. Meat Sci 153(March):35–44
Novedge, “Robots in Gastronomy,” 2014. [Online]. Available: https://robotsingastronomy.com/. [Accessed: 22-Oct-2021].
Yang F, Zhang M, Bhandari B (2017) Recent development in 3D food printing. Crit Rev Food Sci Nutr 57(14):3145–3153
Barnett E, Angeles J, Pasini D (2009) Robot-assisted rapid prototyping for ice structures. IEEE Int Conf Robot Autom 33(4):146–151
Barnett E, Angeles J, Pasini D (2009) Robot-Assisted Rapid Prototyping for Ice Structures, pp 146–151.
Morris M et al (2016) Mars ice house: using the physics of phase change in 3D printing a habitat with H2O. Aiaa Sp 2016(July):673–681
Shakor P, Nejadi S, Paul G, Sanjayan J (2019) Dimensional accuracy, flowability, wettability, and porosity in inkjet 3DP for gypsum and cement mortar materials, Autom Constr 110(December):102964, 2020.
Shakor P, Nejadi S, Paul G, Malek S (2019) Review of emerging additive manufacturing technologies in 3d printing of cementitious materials in the construction industry, Front Built Environ 4(January).
Shakor P, Nejadi S, Sutjipto S, Paul G, Gowripalan N (2020) Effects of deposition velocity in the presence/absence of E6-glass fibre on extrusion-based 3D printed mortar, Addit Manuf 32(January):101069.
Shakor P, Nejadi S, Paul G (2019) A study into the effect of different nozzles shapes and fibre-reinforcement in 3D printed mortar, Materials (Basel)., 12(10).
Gowripalan N, Shakor P, Rocker P (2021) Pressure exerted on formwork by self-compacting concrete at early ages: a review, Case Stud Constr Mater 15(July): e00642.
Zhang H, Li H, Wu M, Yu H, Wang W, Li Z (2014) 3D ICE printing as a fabrication technology of microfluidics with pre-sealed reagents, Proc IEEE Int Conf Micro Electro Mech Syst, pp 52–55.
Segura LJ, Zhao G, Zhou C, Sun H (2020) Nearest neighbor gaussian process emulation for multi-dimensional array responses in freeze nano 3d printing of energy devices. J Comput Inf Sci Eng 20(4):1–10
Zhang Q, Zhang F, Medarametla SP, Li H, Zhou C, Lin D (2016) 3D printing of graphene aerogels. Small 12(13):1702–1708
Zhang F et al (2017) 3D printing technologies for electrochemical energy storage. Nano Energy 40(August):418–431
Kim NP, Cho D, Zielewski M (2019) Optimization of 3D printing parameters of Screw Type Extrusion (STE) for ceramics using the Taguchi method. Ceram Int 45(2):2351–2360
He Q et al (2021) Additive manufacturing of dense zirconia ceramics by fused deposition modeling via screw extrusion. J Eur Ceram Soc 41(1):1033–1040
Guo CF, Zhang M, Bhandari B (2019) A comparative study between syringe-based and screw-based 3D food printers by computational simulation, Comput Electron Agric, 162(August 2018):397–404
Zhang W, Leu MC, Ji Z, Yam Y (2001) Method and apparatus for rapid freezing prototyping, US 6,253,116 B1.
Bryant FD, Sui G, Leu MC (2003) A study on effects of process parameters in rapid freeze prototyping. Rapid Prototyp J 9(1):19–23
Sui G, Leu MC (2003) Investigation of layer thickness and surface roughness in rapid freeze prototyping. J Manuf Sci Eng 125(3):556
Savin A, Floca A, Trifănescu M, Ionescu N, Vişan A (2015) Development of modeling process in rapid freeze prototyping. Appl Mech Mater 760:117–122
Sui G, Leu MC (2003) Thermal analysis of ice walls built by rapid freeze prototyping. J Manuf Sci Eng 125(4):824
Bryant FD, Leu MC (2009) Predictive modeling and experimental verification of temperature and concentration in rapid freeze prototyping with support material. J Manuf Sci Eng Trans ASME 131(4):0410201–0410209
Bryant FD, Leu MC Study on Incorporating Support Material in Rapid Freeze, pp 416–427.
Kamble P, Chavan S, Karunakaran KP Multi-Jet Fluid Deposition in 3D Printing : a Review, no. July, 2018.
Kamble PP (2021) Multimodal Freezing System for Cryogenic 3D Printing, Prepr Res Sq.
Kamble PP, Chavan S, Hodgir R, Gote G, Karunakaran KP (2021) Multi-jet ice 3D printing, Rapid Prototyp J, no. December.
Kamble P, Chavan S, Hodgir R, Gote G, Karunakaran KP Multimodal Freezing System for Cryogenic 3D Printing, Res Sq Prepr. https://doi.org/10.21203/rs.3.rs-480124/v1.
Liao N (2017) p3. US20170343263A1 - System and method for making an ice sculpture.pdf. United States Patent Application Publication.
Liu Q, Leu MC (2006) Investigation of interface agent for investment casting with ice patterns. J Manuf Sci Eng 128(2):554
Sijpkes P, Barnett E, Angeles J, Pasini D (2009) The architecture of phase change at McGill, Leadersh Archit. Res no. April, p 241.
Gupta D, Singh AK, Dravid A, Bellare J (2019) Multiscale porosity in compressible cryogenically 3D printed gels for bone tissue engineering. ACS Appl Mater Interfaces 11(22):20437–20452
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Kamble, P., Hodgir, R., Gote, G. et al. Sub-zero additive manufacturing: a review of peculiarities and applications of additive manufacturing at temperatures below 0 °C. Prog Addit Manuf 7, 993–1008 (2022). https://doi.org/10.1007/s40964-022-00273-y
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DOI: https://doi.org/10.1007/s40964-022-00273-y