During the recent years powder processing technologies have gained much attention due to the less energy consumption and recyclable powders. Manufacturing of complicated parts by the conventional powder metallurgy (PM) method is hard due to the uniaxial pressure, which leads to the low design flexibility. In order to prevail these constraints, powder injection molding (PIM) process, which includes powder metallurgy and injection molding processes, is introduced. In powder injection molding, simulations are a very useful tool to predict each step of process and design the mold. By this way, design can already be optimized and mistakes are avoided. In this review a detailed study of simulation of different steps in the powder injection molding process of macro and micro components produced by this method is presented. Simulation investigations of mixing, injection, debinding, and sintering of various researchers are given. The computer simulation tools available for all steps of the PIM process are surveyed and results are presented.
German RM, Animesh Bose (1997) Injection molding of metals and ceramics. Metal powder industries federation, Princeton, NJ, USA
Merhar JR (1990) Overview of metal injection moulding. Metal Powder Rep 45: 339-342
Zhang T, EvansJRG (1989) Predicting the viscosity of ceramic injection moulding suspensions. J Eur Ceram Soc 5: 165-172
Lin SP, & German RM (1994) The influence of powder loading and binder additive on the properties of alumina injection-moulding blends. J Mater Sci 29: 5367-5373
German RM (1994) Homogeneity effects on feedstock viscosity in powder injection molding. J Am Ceram Soc 77: 283-285
Piotter V (2011) A review of the current status of Micro PIM. Powder Inject. Molding Int 5: 27–42
Attia UM, Alcock JR (2011) A review of micro-powder injection moulding as a microfabrication technique. J Micromech Microeng 21: 043001
Drummer D, Messingschlager S (2014) Ceramic injection molding material analysis, modeling and injection molding simulation. Proceedings of the 29th International Conference of the Polymer Processing.
Yu, PC, Li QF, Fuh JYH, Li T, Ho PW (2009) Micro injection molding of micro gear using nano-sized zirconia powder. Microsyst Technol 15: 401-406
Martin R, Vick M, Enneti RK, Atre SV (2013) Powder injection molding of ceria-stabilized, zirconia-toughened mullite parts for UAV engine components. JOM 65: 1388-1394
Martin R, Vick M, Kelly M, De Souza JP, Enneti RK, Atre SV (2013) Powder injection molding of mullite-zirconia composite. J Mater Res Techn 2: 263-268
Onbattuvelli V, Atre S (2011) Review of net shape fabrication of thermally conducting ceramics. Mater Manuf Process 26: 832-845
Onbattuvelli VP, Laddha S, Park SJ, De Souza JP, Atre SV (2011) SiC for the powder injection molding of thermal management devices. 66th ABM International Congress: 319-329
Kate KH, Enneti RK, McCabe T, Atre SV (2016) Simulations and injection molding experiments for aluminum nitride feedstock. Ceram Int 42: 194-203
Kang TG, Ahn S, Park SJ, Atre SV, German RM (2009) Mixing Simulation for Powder Injection Moulding Feedstock: Quantification and Sensitivity Analysis. PIM Int 3: 59-62
Donald F (2012) Handbook of metal injection molding. Woodhead Publishing Limited, Oxford, pp. 197–233
Alberto Naranjo, Juan F Campuzano, Iván López, (2017), Analysis of heat transfer coefficients and no-flow temperature in simulation of injection molding. SPE ANTEC, Anaheim
Tosello, G, Marhöfer DM, Islam A, Müller T, Plewa K, Piotter V (2019) Comprehensive characterization and material modeling for ceramic injection molding simulation performance validations. Int J Adv Manufact Techn 102: 225-240
Raymond V (2012) Metal injection molding development: Modeling and numerical simulation of injection with experimental validation. Doctoral dissertation, École Polytechnique de Montréal
Jang JM, Lee H, Lee W, Kim YI, Ko SH, Kim JH, Choi JP (2014) Evaluation of feedstock for powder injection molding. JPN J Appl Phys 53: 05HA03
Askari A, Alaei MH, Omrani AM, Nekouee K, Park SJ (2019). Rheological and thermal characterization of AISI 4605 low-alloy steel feedstock for metal injection molding process. Metals Mater Int : 10.1007/s12540-019-00442-9
Abdoos H, Khorsand H, Yousefi AA (2014) Torque rheometry and rheological analysis of powder–polymer mixture for aluminum powder injection molding. Iranian Polym J 23: 745-755
Reddy JJ, Vijayakumar M, Mohan TRR, Ramakrishnar P (1996) Loading of solids in a liquid medium: Determination of CBVC by torque RHEOMETRY. J Europ Ceramic Soc 16:567–574
Sotomayor ME, Varez A, Levenfeld B (2010) Influence of powder particle size distribution on rheological properties of 316L powder injection molding feedstocks. Powder Tech 200: 30–36
Reddy JJ, Ravi N, Vijayakumar M (2000) A simple model for viscosity of powder injection moulding mixes with binder content above powder critical binder volume concentration. J Eur Ceram Soc 20: 2183–2190
Mutsuddy BC, Ford RG (1995) Ceramic injection molding. Chapman & Hall, London
Honek T, Hausnerova B, Saha P (2005) Relative viscosity models and their application to capillary flow data of highly filled hardmetal carbide powder compounds. Polym Compos 26: 30–36
Contreras JM, Jimenez-Morales A, & Torralba JM (2010) Experimental and theoretical methods for optimal solids loading calculation in MIM feedstocks fabricated from powders with different particle characteristics. Powder metall 53: 34- 40
Fang W, He X, Zhang R, Yang S, Qu X (2014) The effects of filling patterns on the powder– binder separation in powder injection molding. Powder Technol 256: 367-376
Mannschatz A, Höhn S, Moritz T (2010) Powder-binder separation in injection moulded green parts. J Eur Ceram Soc 30: 2827-2832
Yang S, Zhang R, Qu X (2013) X-ray tomographic analysis of powder-binder separation in SiC green body. J Eur Ceram Soc 33: 2935-2941
Weber O, Rack A, Redenbach C, Schulz M, Wirjadi O (2011) Micropowder injection molding: Investigation of powder-binder separation using synchrotron-based microtomography and 3D image analysis. J Mater Sci 46: 3568-3573
Yang S, Xu Q, Liu C, Lu X, Qu X, Xu Y(2019) Analysis of powder binder separation through multiscale computed tomography. Metals 9: 329
Samanta SK, Chattopadhyay H, Godkhindi MM (2011) Modelling the powder binder separation in injection stage of PIM. Prog Comput Fluid Dy 11: 292-304
Tosello G, Marhöfer DM, Islam A, Müller T, Plewa K, Piotter V (2019) Comprehensive characterization and material modeling for ceramic injection molding simulation performance validations. Int J Adv Manuf Tech 102: 225-240
Yin H, Wang Q, Qu X, Jia C, Johnson JL (2011) Computational simulation and experimental analysis of the mold-filling process in μPIM. J Micromech Microeng 21: 045023
Sardarian M, Mirzaee O, Habibolahzadeh A (2017) Mold filling simulation of low pressure injection molding (LPIM) of alumina: Effect of temperature and pressure. Ceram Int 43: 28-34
Sardarian M, Mirzaee O, Habibolahzadeh A (2017) Numerical simulation and experimental investigation on jetting phenomenon in low pressure injection molding (LPIM) of alumina. J Mater Process Tech 243: 374-380
He J, Shao Z, Yin H, Elder S, Zheng Q, Qu X (2018) Investigation of inhomogeneity in powder injection molding of nano zirconia. Powder Technol 328: 207-214
He H, Li Y, Lou J, Li D, Liu C (2016 ) Prediction of density variation in powder injection moulding-filling process by using granular modeling with interstitial power-law fluid. Powder Technol. 1; 291:52-9
Matula G, DobrzaĆski LA, Ambroziak M (2012) Simulation of powder injection moulding conditions using cadmould program. JAMMFE 55: 556-560
Ani SM, Muchtar A, Muhamad N, Ghani JA (2014) Binder removal via a two-stage debinding process for ceramic injection molding parts. Ceram Int 40: 2819-2824
Páez-Pavón A, Jiménez-Morales A, Santos TG, Quintino L, Torralba JM (2016) Influence of thermal debinding on the final properties of Fe–Si soft magnetic alloys for metal injection molding (MIM). J Magn Magn Mater 416: 342-347
Hidalgo J, Jiménez-Morales A, & Torralba JM (2012) Torque rheology of zircon feedstocks for powder injection moulding. J Eur Ceram Soc 32: 4063-4072
Sommer F, Walcher H, Kern F, Maetzig M, Gadow R (2014) Influence of feedstock preparation on ceramic injection molding and microstructural features of zirconia toughened alumina. J Eur Ceram Soc 34: 745-751
Ahn S, Park SJ, Lee S, Atre SV, German RM (2009) Effect of powders and binders on material properties and molding parameters in iron and stainless steel powder injection molding process. Powder Technol 193: 162-169
Bleyan D (2015) Binder system for powder injection moulding. Doctoral thesis, Tomas Bata University, Zlín
Bloemacher M, Weinand D (1997) CatamoldTM-a new direction for powder injection molding. J Mater Process Tech 63: 918-922
Zu YS, Lin ST (1997) Optimizing the mechanical properties of injection molded W4.9% Ni 2.1% Fe in debinding. J Mater Process Tech 71: 337- 342
Pinwill IE, Edirisinghe MJ, Bevis MJ (1992) Development of temperature-heating rate diagrams for the pyrolytic removal of binder used for powder injection moulding. J Mater Sci 27: 4381- 4388
Hausnerova B, Kuritka I, Bleyan D (2014) Polyolefin backbone substitution in binders for low temperature powder injection moulding feedstocks. Molecules 19: 2748-2760
Lam YC, Yu SCM, Tam KC, Shengjie Y (2000) Simulation of polymer removal from a powder injection molding compact by thermal debinding. Metall Mater Trans A 31: 2597-2606
Shengjie Y, Lam YC, Yu SCM, Tam KC (2001) Two-dimensional simulation of mass transport in polymer removal from a powder injection molding compact by thermal debinding. J Mater Res 16: 2436-2451
Heaney DF, Spina R (2007) Numerical analysis of debinding and sintering of MIM parts. J Mater Process Tech 191: 385-389
Shengjie Y, Lam YC, Yu SCM, Tam KC (2002) Thermal debinding modeling of mass transport and deformation in powder-injection molding compact. Metall Mater Trans B 33: 477-488
Lin TL, Hourng LW (2005) Investigation of wick debinding in metal injection molding: Numerical simulations by the random walk approach and experiments. Adv Powder Technol 16: 495-515
Chang CY (2003) Numerical simulation of two-dimensional wick debinding in metal powder injection molding. Adv Powder Technol 14: 177- 194
Khoong LE, Lam YC, Chai JC, Jiang L, Ma J (2007) Numerical and experimental investigations on thermal debinding of polymeric binder of powder injection molding compact. Chem Eng Sci 62: 6927-6938
Oh JW, Lee WS, Park SJ (2018) Investigation and modeling of binder removal process in nano/micro bimodal powder injection molding. Int J Adv Manuf Tech 97: 4115-4126
Park SJ, Wu Y, Heaney DF, Zou X, Gai G, German RM (2009) Rheological and thermal debinding behaviors in titanium powder injection molding. Metall Mater Trans A 40: 215-222
Mamen B, Thierry B, Jean-Claude G (2013) Investigations on thermal debinding process for fine 316L stainless steel feedstocks and identification of kinetic parameters from coupling experiments and finite element simulations. Powder Technol 235:192-202
Somasundram IM, Cendrowicz A, Johns ML, Prajapati B, Wilson DI (2010) 2-D simulation of wick debinding for ceramic parts in close proximity. Chem Eng Sci 65: 5990-6000
Gorjan L, Dakskobler A (2010) Partial wick-debinding of low-pressure powder injection-moulded ceramic parts. J Eur Ceram Soc 30: 3013-3021
Somasundram IM, Cendrowicz A, Wilson DI, Johns ML (2008) Phenomenological study and modelling of wick debinding. Chem Eng Sci 63: 3802-3809
Song J, Barriere T, Liu B, Gelin JC (2007) Numerical simulation of sintering process in ceramic powder injection moulded components. AIP Conf Proc 908: 1111-1116
Mamen B, Song J, Barriere T, Gelin JC (2015) Experimental and numerical analysis of the particle size effect on the densification behaviour of metal injection moulded tungsten parts during sintering. Powder Technol 270: 230-243
Blaine DC, German RM (2002) Sintering simulation of PIM stainless steel. Adv PM Part 10: 10- 255
Lam YC, Chen X, Tam KC, Yu SCM (2003) Simulation of particle migration of powder-resin system in injection molding. J Manuf Sci Eng 125: 538-547
Kwon YS, Wu Y, Suri P, German RM (2004) Simulation of the sintering densification and shrinkage behavior of powder-injection-molded 17-4 PH stainless steel. Metall Mater Trans A 35: 257- 263
Kong X, Quinard C, Barriere T, Gelin JC, Michel G (2009) Miniaturization & Nanopowders: Micro Injection Molding of 316L Stainless Steel Feedstock and Numerical Simulations. In European Congress and Exhibition on Powder Metallurgy, European PM Conference Proceedings (p. 1)
Song J, Gelin JC, Barrière T, Liu B (2006) Experiments and numerical modelling of solid state sintering for 316L stainless steel components. J Mater Process Tech 177: 352-355
Wu Y, Blaine D, Schlaefer C, Marx B, German RM (2002) Sintering densification and microstructural evolution of injection molding grade 17-4 PH stainless steel powder. Metall Mater Trans A 33: 2185-2194
German RM (2002) Computer modeling of sintering processes. Int J Powder Metall 38:48–66
Gasik M, Zhang BA (2000) Constitutive model and FE simulation for the sintering process of powder compacts. Comput Mater Sci 18: 93-101
Bordia RK, Scherer GW (1988) On constrained sintering-II. Comparison of constitutive models. Acta Metall 36: 2399-2409
Song J, Barriere T, Liu B, Gelin JC, Michel G (2010) Experimental and numerical analysis on sintering behaviours of injection moulded components in 316L stainless steel powder. Powder Metall 53: 295-304
Sahli M, Lebied A, Gelin J-C, Barrière T, Necib B (2015) Numerical simulation and experimental analysis of solid-state sintering response of 316 L stainless steelmicro-parts manufactured by metal injection molding. Int J Adv Manuf Tech 79: 2079–2092
Yavari, R., Khorsand, H., & Sardarian, M. (2019). Simulation and modeling of macro and micro components produced by powder injection molding: A review. Polyolefins Journal, 7(1), 45-60. doi: 10.22063/poj.2019.2568.1141
MLA
Rezvan Yavari; Hamid Khorsand; Mehran Sardarian. "Simulation and modeling of macro and micro components produced by powder injection molding: A review". Polyolefins Journal, 7, 1, 2019, 45-60. doi: 10.22063/poj.2019.2568.1141
HARVARD
Yavari, R., Khorsand, H., Sardarian, M. (2019). 'Simulation and modeling of macro and micro components produced by powder injection molding: A review', Polyolefins Journal, 7(1), pp. 45-60. doi: 10.22063/poj.2019.2568.1141
VANCOUVER
Yavari, R., Khorsand, H., Sardarian, M. Simulation and modeling of macro and micro components produced by powder injection molding: A review. Polyolefins Journal, 2019; 7(1): 45-60. doi: 10.22063/poj.2019.2568.1141