[1] Zheng, F., Wang, Z., Huang, J., Li, Z., Inkjet Printing-Based Fabrication of Microscale 3D Ice Structures, Microsystems & Nanoengineering, 6(1), 2020, 89.
[2] Vaezi, M., Seitz, H., Yang, S., A Review on 3D Micro-Additive Manufacturing Technologies, International Journal of Advanced Manufacturing Technology, 67, 2013, 1721-1754.
[3] Özkol, E., Ebert, J., Telle, R., An Experimental Analysis of the Influence of Ink Properties on the Drop Formation for Direct Thermal Inkjet Printing of High Solid Content Aqueous 3Y-TZP Suspensions, Journal of the European Ceramic Society, 30(7), 2010, 1669-1678.
[4] Tseng, W.J., Lin, S.Y., Wang, S.R., Particulate Dispersion and Freeform Fabrication of BaTiO3 Thick Films Via Direct Inkjet Printing, Journal of Electroceramics, 16, 2006, 537-540.
[5] Somasundaram, R., Kanagaraj, R., Kalakkath, P., Dynamic Characteristics of Drop-Substrate Interactions in Direct Ceramic Ink-Jet Printing Using High-Speed Imaging System, Defence Science Journal, 59(6), 2009, 675-682.
[6] Park, J.A., Yoon, S., Kwon, J., Now, H., Kim, Y.K., Kim, W.J., Yoo, J.Y., Jung, S., Freeform Micropatterning of Living Cells into Cell Culture Medium, Using Direct Inkjet Printing, Scientific Reports, 7(1), 2017, 14610.
[7] Gunzburg, W.H., Aung, M.M., Toa, P., Ng, S., Read, E., Tan, W.J., Brandtner, E.M., Dangerfeld, J., Salmons, B., Efficient Protection of Microorganisms for Delivery to The Intestinal Tract by Cellulose Sulphate Encapsulation, Microbial Cell Factories, 19(1), 2020, 1-14.
[8] Jones, M., Walker, D., Ionescu, C.M., Kovacevic, B., Wagle, S.R., Mooranian, A., Brown, D., Al-Salami, H., Microencapsulation of Coenzyme Q10 and Bile Acids, Using Ionic Gelation Vibrational Jet Flow Technology for Oral Delivery, Therapeutic Delivery, 11(12), 2020, 791-805.
[9] Mooranian, A., Jones, M., Ionescu, C.M., Walker, D., Wagle, S.R., Kovacevic, B., Chester, J., Foster, T., Johnston, E., Kuthubutheen, J., Brown, D., Mikov, M., Al-Salami, H., Artificial Cell Encapsulation for Biomaterials and Tissue Bio-Nanoengineering: History, Achievements, Limitations, And Future Work for Potential Clinical Applications and Transplantation, Journal of Functional Biomaterials, 12(4), 2021, 68.
[10] Wang, S., Wu, X., Lu, J., Luo, Z., Xie, H., Zhang, X., Lin, K., Wang, Y., Inkjet-Printed Silver Nanowire Ink for Flexible Transparent Conductive Film Applications, Nanomaterials, 12(5), 2022, 842.
[11] Chen, X.Z., Luo, Q., Ma, C.Q., Inkjet-Printed Organic Solar Cells and Perovskite Solar Cells: Progress, Challenges, and Prospects, Chinese Journal of Polymer Science, 41(8), 2023, 1169-1197.
[12] Hussain, A., Abbas, N., Ali, A., Inkjet Printing: a Viable Technology for Biosensor Fabrication, Chemosensors, 10(3), 2022, 103.
[13] Uddin, M.J., Hassan, J., Douroumis, D., Thermal Inkjet Printing: Prospects and Applications in The Development of Medicine, Technologies, 10(5), 2022, 108.
[14] Barui, S., 3D Inkjet Printing of Biomaterials: Principles and Applications, Medical Devices & Sensors, 4(1), 2021, e10143.
[15] Parupelli, S.K., Desai, S., The 3D Printing of Nanocomposites for Wearable Biosensors: Recent Advances, Challenges, and Prospects, Bioengineering, 11(1), 2023, 32.
[16] Wang, F., Tschukin, O., Leisner, T., Zhang, H., Nestler, B., Selzer, M., Marques, G.C., Aghassi-Hagmann, J., Morphological Stability of Rod-Shaped Continuous Phases, Acta Materialia, 192, 2020, 20-29.
[17] Bogy, D.B., Drop Formation in a Circular Liquid Jet, Annual Review of Fluid Mechanics, 11, 1979, 207-228.
[18] Andreas, J.M., Hauser, E.A., Tucker, W.B., Boundary Tension by Pendant Drops, Journal of Physical Chemistry, 9(7), 1938, 1001-1004.
[19] Schulkes, R.M.S.M., The Evolution and Bifurcation of a Pendant Drop, Journal of Fluid Mechanics, 278, 1994, 83-100.
[20] Richards, J.R., Beris, A.N., Lenhoff, A.M., Drop Formation in Liquid-Liquid Systems Before and After Jetting, Physics of Fluids, 7(11), 1995, 2617.
[21] Zhang, D.F., Stone, H.A., Drop Formation in Viscous Flows at a Vertical Capillary Tube, Physics of Fluids, 9(8), 1997, 2234.
[22] Ambravaneswaran, B., Wilkes, E.D., Basaran, O.A., Drop Formation from a Capillary Tube: Comparison of One-Dimensional and Two-Dimensional Analyses and Occurrence of Satellite Drops, Physics of Fluids, 14(8), 2002, 2606.
[23] Cristini, V., Tan, Y.C., Theory and Numerical Simulation of Drop Dynamics in Complex Flows-a Review, Lab on a Chip, 4(3), 2004, 257-264.
[24] Cramer, C.V., Continuous Drop Formation at a Capillary Tip and Drop Deformation in a Flow Channel, Ph.D. Thesis, Laboratory of Food Process Engineering, Swiss Federal Institute of Technology (ETH), Zürich, 2004.
[25] Fawehinmi, O.B., Gaskell, P.H., Jimack, P.K., Kapur, N., Thompson, H., A Combined Experimental and Computational Fluid Dynamics Analysis of the Dynamics of Drop Formation, Journal of Mechanical Engineering Science, 219(9), 2005, 933-947.
[26] Yildirim, O.E., Xu, Q., Basaran, O.A., Analysis of the Drop Weight Method, Physics of Fluids, 17(6), 2005, 062107.
[27] Georgescu, S.C., Canot, E., Achard, J.L., Soucemarianadin, A., Drops Ejection from a Capillary Nozzle by Drop-On-Demand Technology, International Conference on Modelling Fluid Flow CMFF’06, Budapest, Hungary, 2006.
[28] Subramani, H. J., Yeoh, H. K., Suryo, R., Xu, Q., Ambravaneswaran, B., Basaran, O.A., Simplicity and Complexity in a Dripping Faucet, Physics of Fluids, 18(3), 2006, 032106.
[29] Xu, Q., Basaran, O.A., Computational Analysis of Drop-On-Demand Drop Formation, Physics of Fluids, 19(10), 2007, 102111.
[30] Chang, B., Nave, G., Jung, S., Drop Formation from a Wettable Nozzle, Communications in Nonlinear Science and Numerical Simulation, 17(5), 2012, 2045-2051.
[31] Glawdel, T., Elbuken, C., Ren, C.L., Drop Generation in Microfluidics: Encyclopedia of Microfluidics and Nanofluidics, Springer, Boston, 2013.
[32] Bierbrauer, F., Kapur, N., Wilson, M.C.T., Drop Pinch-Off for Discrete Flows from a Capillary, ESAIM: Proceedings, 40, 2013, 16–33.
[33] Chakraborty, I., Rubio-Rubio, M., Sevilla, A., Gordillo, J.M., Numerical Simulation of Axisymmetric Drop Formation Using a Coupled Level Set and Volume of Fluid Method, International Journal of Multiphase Flow, 84, 2016, 54–65.
[34] Viswanathan, H., Breakup and Coalescence of Drops During Transition from Dripping to Jetting in a Newtonian Fluid, International Journal of Multiphase Flow, 112, 2019, 269–285.
[35] Nazari, A., Zadkazemi Derakhshi, A., Nazari, A., Firoozabadi, B., Drop Formation from a Capillary Tube: Comparison of Different Bulk Fluid on Newtonian Drops and Formation of Newtonian and Non-Newtonian Drops in Air Using Image Processing, International Journal of Heat and Mass Transfer, 124, 2018, 912–919.
[36] Rubio-Rubio, M., Taconet, P., Sevilla, A., Dripping Dynamics and Transitions at High Bond Numbers, International Journal of Multiphase Flow, 104, 2018, 206–213.
[37] Aqeel, A.B., Mohasan, M., Lv, P., Yang, Y., Duan, H., Effects of Nozzle and Fluid Properties on the Drop Formation Dynamics in a Drop-On-Demand Inkjet Printing, Applied Mathematics and Mechanics, 40, 2019, 1239–54.
[38] Tsai, P.H., Wang, A.B., Classification and Prediction of Dripping Drop Size for a Wide Range of Nozzles by Wetting Diameter, Langmuir, 35(15), 2019, 4763–4775.
[39] Shen, C., Liu, F., Wu, L., Yu, C., Yu, W., Dripping, Jetting and Regime Transition of Drop Formation in a Buoyancy-Assisted Microfluidic Device, Micromachines, 11(11), 2020, 962.
[40] Lin, P., Chen, Q., Liu, Y., Hu, X., Zhu, Z., Prediction of Newtonian Drop Breaking Time from a Capillary at Low Weber Numbers, ACS Omega, 7, 2022, 23890–8.
[41] Fainerman, V.B., Miller, R., Hydrodynamic Effects in Measurements with the Drop Volume Technique at Small Drop Times. 2. Drop Time and Drop Volume Bifurcations, Colloids and Surfaces A: Physicochemical and Engineering Aspects, 97, 1995, 255–262.
[42] Deka, H., Tsai, P. H., Biswas, G., Dalal, A., Ray, B., Wang, A.B., Dynamics of Formation and Oscillation of Non-Spherical Drops, Chemical Engineering Science, 201, 2019, 413–423.
[43] Wang, Z., Zhang, Y., Li, R., Wang, Q., Wang, J., An Experimental Study on Drop Formation from a Capillary Tube, Journal of the Brazilian Society of Mechanical Sciences and Engineering, 42(110), 2020, 1–13.
[44] Majumder, A., Ghosh, D., Das, P.K., Dynamics of Drop Formation, Growth and Pinching Phenomena from a Submerged Nozzle, Chemical Engineering Science, 245, 2021, 116808.
[45] Ghorbanifar, S., Taeibi-Rahni, M., Zareh, M., Innovations in Non-Linear Oscillations of a Pendent Drop from a Capillary Tip During Formation and Detachment—an LBM Simulation, Journal of Applied Fluid Mechanics, 14, 2020, 331–344.
[46] Ghorbanifar, S., Taeibi-Rahni, M., Zareh, M., Nobakhti, M.H., Stability and Bifurcation Analysis of a Pendent Drop, Using a Novel Dynamical Model, Archives of Applied Mechanics, 93(2), 2023, 487–501.
[47] Miller, R., Bree, M., Fainerman, V.B., Hydrodynamic Effects in Measurements with the Drop Volume Technique at Small Drop Times-3. Surface Tensions of Viscous Liquids, Colloids and Surfaces A: Physicochemical and Engineering Aspects, 142, 1998, 237–242.
[48] Harkins, W.D., Brown, F.E., The Determination of Surface Tension (Free Surface Energy) and the Weight of Falling Drops: The Surface Tension of Water and Benzene by The Capillary Height Method, Journal of the American Chemical Society, 41, 1919, 499–525.
[49] Wang, H., Yuan, X., Liang, H., Chai, Z., Shi, B., A brief review of the phase-field-based lattice Boltzmann method for multiphase flows, Capillarity, 2(3), 2019, 33-52.
[50] Geier, M., Fakhari, A., Lee, T., Conservative phase-field lattice Boltzmann model for interface tracking equation, Physical Review E, 91(6), 2015, 063309.
[51] Wang, H., Chai, Z., Shi, B., Liang, H., Comparative study of the lattice Boltzmann models for Allen-Cahn and Cahn-Hilliard equations, Physical Review E, 94(3), 2016, 033304.
[52] Ren, F., Song, B., Sukop, M.C., Hu, H., Improved lattice Boltzmann modeling of binary flow based on the conservative Allen-Cahn equation, Physical Review E, 94(2), 2016, 023311.
[53] Fakhari, A., Lee, T., Multiple-Relaxation-Time Lattice Boltzmann Method for Immiscible Fluids at High Reynolds Numbers, Physical Review E, 87(2), 2013, 023304.
[54] Fakhari, A., Bolster, D., Diffuse Interface Modeling of Three-Phase Contact Line Dynamics on Curved Boundaries: a Lattice Boltzmann Model for Large Density and Viscosity Ratios, Journal of Computational Physics, 334, 2017, 620–638.
[55] Chiu, P.H., Lin, Y.T., A Conservative Phase Field Method for Solving Incompressible Two-Phase Flows, Journal of Computational Physics, 230(1), 2011, 185–204.
[56] Lee, T., Effects of Incompressibility on the Elimination of Parasitic Currents in the Lattice Boltzmann Equation Method for Binary Fluids, Computers & Mathematics with Applications, 58(5), 2009, 987–994.
[57] Jacqmin, D., Calculation of Two-Phase Navier–Stokes Flows Using Phase-Field Modeling, Journal of Computational Physics, 155(1), 1999, 96–127.
[58] Jafari, Y., Taeibi-Rahni, M., Haghshenas, M., Ramian, P., Lattice Boltzmann Numerical Investigation of Inner Cylindrical Pin-Fins Configuration on Nano fluid Natural Convective Heat Transfer in Porous Enclosure, Journal of Applied Fluid Mechanics, 11(3), 2018, 801–816.
[59] Clift, R., Grace, J.R., Weber, M.E., Bubbles, Drops, and Particles, Academic Press, New York, 1978.
[60] Sen, N., Singh, K.K., Mukhopadhyay, S., Shenoy, K. T., Drop Formation at a Hole in a Plate Submerged in Quiescent Continuous Phase: Comparison of Plain Hole and Nozzle Hole, Chemical Engineering Communications, 206(10), 2019, 1317–1336.
[61] Liang, H., Liu, H., Shi, B., Lattice Boltzmann Method for Contact-Line Motion of Binary Fluids with High Density Ratio, Physical Review E, 99, 2019, 063306.
[62] Zou, Q., He, X., On Pressure and Velocity Boundary Conditions for the Lattice Boltzmann BGK Model, Physics of Fluids, 9(6), 1997, 1591–1598.
[63] Falcucci, G., Aureli, M., Ubertini, S., Porfiri, M., Transverse Harmonic Oscillations of Laminae in Viscous Fluids: a Lattice Boltzmann Study, Philosophical Transactions of the Royal Society A: Mathematical, Physical and Engineering Sciences, 369(1945), 2011, 2456–2466.
[64] Fox, R.W., McDonald, A.T., Pritchard, P.J., Introduction to Fluid Mechanics (6th ed.), John Wiley and Sons, New York, 2004.
[65] Zhang, X., Basaran, O.A., An Experimental Study of Dynamics of Drop Formation, Physics of Fluids, 7(6), 1995, 1184–1203.
[66] Ding, H., Spelt, P.D.M., Shu, C., Diffuse Interface Model for Incompressible Two-Phase Flows with Large Density Ratios, Journal of Computational Physics, 226, 2007, 20.
[67] Li, Q., Luo, K.H., Gao, Y.J., He, Y.L., Additional Interfacial Force in Lattice Boltzmann Models for Incompressible Multiphase Flows, Physical Review E, 85, 2012, 026704.
[68] Zu, Y.Q., He, S., Phase-Field-Based Lattice Boltzmann Model for Incompressible Binary Fluid Systems with Density and Viscosity Contrasts, Physical Review E, 87, 2013, 043301.
[69] Ren, F., Song, B., Sukop, M.C., Hu, H., Improved Lattice Boltzmann Modeling of Binary Flow Based on the Conservative Allen-Cahn Equation, Physical Review E, 94, 2016, 023311.
[70] Tate, T., XXX. On The Magnitude of a Drop of Liquid Formed under Different Circumstances, Philosophical Magazine and Journal of Science, 27(181), 1864, 176–180.
[71] Karbaschi, M., Bastani, D., Javadi, A., Kovalchuk, V.I., Kovalchuk, N.M., Makievski, A.V., Bonaccurso, E., Miller, R.,Drop Profile Analysis Tensiometry under Highly Dynamic Conditions, Colloids and Surfaces A: Physicochemical and Engineering Aspects, 413, 2012, 292–297.
[72] Dieter-Kissling, K., Karbaschi, M., Marschall, H., Javadi, A., Miller, R., Bothe, D., On The Applicability of Drop Profile Analysis Tensiometry at High Flow Rates Using an Interface Tracking Method, Colloids and Surfaces A: Physicochemical and Engineering Aspects, 441, 2014, 837–845.