Furrow Irrigation Papers (December 2022):
HYDRUS (2D/3D):
2022
1. Balkhi, A., H. Ebrahimian, A. N. Ghameshlou, and M. Amini, Modeling of nitrate andammonium leaching and crop uptake under wastewater application considering nitrogen
cycle in the soil, Model. Earth Syst. Environ., 11 p., doi: 10.1007/s40808-022-01546-9, 2022.
2. Yu, J., K. Liu, A. Li, M. Yang, X. Gao, X. Zhao, and Y. Cai, The effect of plug height andinflow rate on water flow characteristics in furrow Irrigation, Agronomy, 12(9), 2225, doi:
10.3390/ agronomy12092225, 2022.
3. Zhu, W., R. Qiao, and R. Jiang, Modelling of water and nitrogen flow in a rain‐fed
ridge‐furrow maize system with plastic mulch, Land, 11(9), 1514, 19 p., doi:
10.3390/land11091514, 2022.
2021
4. Kazemi, H., A. A. Sadraddini, A. H. Nazemi, and C. A. Sanchez, Moment analysis formodeling soil water distribution in furrow irrigation: Variable vs. constant ponding depths,Water, 13(10), 1415, 13 p., doi: 10.3390/w13101415, 2021.
5. Pahlevani, A., H. Ebrahimian, F. Abbasi, and H. Fujimaki, Distribution of soil water andnitrate in furrow irrigation under different plastic mulch placement conditions for a maize
crop: Field and modelling study, International Agrophysics, 35(2), 131-144, doi:
10.31545/intagr/135338, 2021.
2020
6. Bristow, K. L., J. Šimůnek, S. A. Helalia, and A. A. Siyal, Numerical simulations of theeffects furrow surface conditions and fertilizer locations have on plant nitrogen and water use
in furrow irrigated systems, Agricultural Water Management, 232, 106044, 11 p., doi:
10.1016/j.agwat.2020.106044, 2020.
7. Memon, M. S., K. Ullah, A. Ali Siyal, N. Leghari, A. A. Tagar, K. A. Ibupoto, S. T. Ata-ulkarim, M. Tahir, and N, Memon, The effect of different raised bed sizes under furrow
irrigation method on salt distribution in soil profile and yield by Hydrus (2/3D), Pakistan
Journalof
Agricultural
Research,33(1),113-125,doi:
10.17582/journal.pjar/2020/33.1.113.125, 2020.
8. Nie, Wei-Bo, Kun-Kun Nie, Yi-Bo Li, and Xiao-Yi Ma, HYDRUS-2D Simulations of nitrate
nitrogen and potassium transport characteristics under fertilizer solution infiltration of furrow
irrigation, Water Supply, ws2020266, doi: 10.2166/ws.2020.266, 2020.
2019
9. Fu, Q., R. Hou, T. Li, Y. Li, D. Liu, and Mo Li, A new infiltration model for simulating soil
water movement in canal irrigation under laboratory conditions, Agricultural Water
Management, 213, 433–444, doi: 10.1016/j.agwat.2018.10.021, 2019.
10. Liu, K., G. Huang, X. Xu, Y. Xiong, Q. Huang, and J. Šimůnek, A coupled model forsimulating water flow and solute transport in furrow irrigation, Agricultural Water
Management, 213, 792-802, 2019.

11. Mohammadi, A., S. Besharat, and F. Abbasi, Effects of irrigation and fertilization
management on reducing nitrogen losses and increasing corn yield under furrow irrigation,
Agricultural Water Management, 213, 1116–1129, doi: 10.1016/j.agwat.2018.11.007, 2019.
12. Ranjbar, A., A. Rahimikhoob, H. Ebrahimian, and M. Varavipour, Simulation of nitrogen
uptake and distribution under furrows and ridges during the maize growth period usingHYDRUS-2D, Irrigation Science, doi: 10.1007/s00271-019-00627-5, 2019.
13. Brunetti, G., J. Šimůnek, and E. Bautista, A hybrid finite volume-finite element model for thenumerical analysis of furrow irrigation and fertigation, Computers and Electronics inAgriculture, 150, 312-327, doi: 10.1016/j.compag.2018.05.013, 2018.
2018
14. Brunetti, G., J. Šimůnek, and E. Bautista, A hybrid finite volume-finite element model for thenumerical analysis of furrow irrigation and fertigation, Computers and Electronics inAgriculture, 150, 312-327, doi: 10.1016/j.compag.2018.05.013, 2018.
15. Wang, J., H. Feng, N. Wang, Q. Dong, X. Chu, and L. Zhou, Effects of ridge-furrow planting
with plastic film mulching on summer maize growth and soil water dynamics, Journal of Soiland Water Conservation, 2, 110-119, 2018 (in Chinese).
2017
16. Akbar, G., M. M. Ahmad, M. Khan, and M. Asif, Furrow lateral wetting potential for
optimizing bed width in silty clay, Irrigation and Drainage, 66(2), 218–226,
doi: 10.1002/ird.2092, 2017.
17. Bautista, E., A. W. Warrick, J. L. Schlegel, K. R. Thorp, and D. J. Hunsaker, Approximate
furrow infiltration model for time-variable ponding depth, Wetted-perimeter-dependent
furrow infiltration and its implication for the hydraulic analysis of furrow irrigation systems,
Journal of Irrigation and Drainage Engineering, doi: 10.1061/(ASCE)IR.19434774.0001057, 2017.
18. Liu, K., and G. Huang, Parameter estimation for furrow infiltration model with Gene
Expression Programming, Journal of Hydraulic Engineering, 11, 1293-1302, 2017 (inChinese).
19. Qiu, R., T. Du, and S. Kang, Root length density distribution and associated soil water
dynamics for tomato plants under furrow irrigation in a solar greenhouse, Journal of AridLand, 5, 637-650, 2017 (in Chinese).
20. Xu, C., H. Cheng, Y. Wang, H. Liu, R. Wang, and L. Liu, Simulation of water-salt
transportation under various furrow irrigation patterns based on HYDRUS-3D model, Water
Saving Irrigation, 10, 9-14, 2017.
2016
21. Deb, S. K., P. Sharma, M. K. Shukla, J. Ashigh, and J. Šimůnek, Numerical evaluation ofnitrate distributions in the onion root zone under conventional furrow fertigation, Journal ofHydrologicEngineering,21(2),05015026-1-12,
doi:10.1061/(ASCE)HE.19435584.0001304, 2016.
22. Iqbal, S., A. K. Guber, and H. Z. Khan, Estimating nitrogen leaching losses after compostapplication in furrow irrigated soils of Pakistan using HYDRUS-2D software, Agricultural
Water Management, 168, 85–95, 2016.

23. Šimůnek, J., K. L. Bristow, S. A. Helalia, and A. A. Siyal, The effect of different fertigation
strategies and furrow surface treatments on plant water and nitrogen use, Irrigation Science,34(1), 53-69, doi:10.1007/s00271-015-0487-z, 2016.
24. Zheng, J., Y.Wang, H. Cai, E. Zhang, and Y. Sun, Experimental investigation into effects ofmaize leaf and straw fragments on soil water infiltration characteristics in furrow irrigation,
Journal of Drainage and Irrigation Machinery Engineering, 1, 66-72,80, 2016 (in Chinese).
2015
25. Chen, L.-J., Q. Feng, F.-R. Li, and C.S. Li, Simulation of soil water and salt transfer undermulched furrow irrigation with saline water, Geoderma, 241, 87-96, 2015.
26. Ma, H., X. Wang, Z. Zhang, G. Feng, and N. Lü, Numerical simulation of water-salt
distribution under brackish water film hole furrow irrigation based on HYDRUS-3D model,
Transactions of the Chinese Society for Agricultural Machinery, 2, 137-145, 2015 (inChinese).
27. Zhang, Y., P. Wu, and X. Zhao, Wetting pattern of ridge-furrow irrigation infiltration
described with moment analysis, Journal of Desert Research, 5, 1217-1225, 2015 (inChinese).
2014
28. Bautista, E., A. W. Warrick, and T. S. Strelkoff, New results for an approximate method for
calculating two-dimensional furrow infiltration, Journal of Irrigation and Drainage
Engineering, 140(10), doi:10.1061/(ASCE)IR.1943-4774.0000753, 2014.
29. Bautista, E. A. W. Warrick, and J. L. Schlegel, Wetted-perimeter-dependent furrow
infiltration and its implication for the hydraulic analysis of furrow irrigation systems, World
Environmental and Water Resources Congress, 1727-1735, 2014.
30. Zerihun, D., C. A. Sanchez, N. Lazarovitch, A. W. Warrick, A. J. Clemmens, and E.
Bautista, Modeling flow and solute transport in irrigation furrows, Irrigation & Drainage
System Engineering, 3(2), 124, pp. 16, doi:10.4172/2168-9768.1000124, 2014.
2013
31. Ebrahimian, H., A. Liaghat, M. Parsinejad, E. Playan, F. Abbasi, M. Navabian, and B.
Lattore, Optimum design of alternate and conventional furrow fertigation to minimize nitrateloss, Journal of Irrigation and Drainage Engineering, 139(11), 911-921, doi:
10.1061/(ASCE)IR.1943-4774.0000635, 2013.
32. Ebrahimian, H., A. Liaghat, M. Parsinejad, E. Playan, F. Abbasi, and M. Navabian,Simulation of 1D surface and 2D subsurface water flow and nitrate transport in alternate andconventional furrow fertigation, Irrig. Sci., 31, 301–316, doi: 10.1007/s00271-011-0303-3,2013.
2012
33. Ebrahimian, H., A. Liaghat, M. Parsinejad, F. Abbasi, and M. Navabian, Comparison of oneand two dimensional models to simulate alternate and conventional furrow fertigation,
Journal of Irrigation and Drainage Engineering, doi: 10.1061/(ASCE)IR.19434774.0000482, 138(10), 929-938, 2012.

34. Siyal, A. A., K. L. Bristow, and J. Šimůnek, Minimizing nitrogen leaching from furrow
irrigation through modified fertilizer placement and soil management strategies, Agricultural
Water Management, 115, 242-251, 2012.
2009
35. Lazarovitch, N., A. W. Warrick, A. Furman, and D. Zerihun, Subsurface water distribution
from furrows described by moment analyses, Journal of Irrigation and Drainage
Engineering, 135(1), 7–12, 2009.
2008
36. Crevoisier, D., Z. Popova, J. C. Mailhol, and P. Ruelle, Assessment and simulation of waterand nitrogen transfer under furrow irrigation, Agricultural Water Management, 95(4), 354366, 2008.
2007
37. Mailhol, J. C., D. Crevoisier, and K. Triki, Impact of water application conditions on
nitrogen leaching under furrow irrigation: Experimental and modeling approaches,
Agricultural Water Management, 87(3), 275-284, 2007.
38. Warrick, A. W., N. Lazarovitch, A. Furman; and D. Zerihun, Explicit infiltration function forfurrows, Journal of Irrigation and Drainage Engineering, 133(4), 307-313, 2007.
39. Wöhling, Th., G. H. Schmitz, A physically based coupled model for simulating 1D surface 2D subsurface flow and plant water uptake in irrigation furrows. I: Model development,Journal of Irrigation and Drainage Engineering, 133(6), 538-547, 2007.
40. Wöhling, Th., J. C. Mailhol, A physically based coupled model for simulating 1D surface 2D subsurface flow and plant water uptake in irrigation furrows. II: Model test andevaluation, Journal of Irrigation and Drainage Engineering, 133 (6), 548-558, 2007.
2006
41. Popova Z., D. Crevoisier, P. Ruelle, and J. C. Mailhol, Assessment and simulation of waterand nitrogen transfer under furrow irrigation Part I. Application of Hydrus2D model tosimulate water transfer, Ecology in future. Bulgarian Journal of ecological science, V(3), 316, 2006.
42. Popova Z., D. Crevoisier, P. Ruelle, and J. C. Mailhol, Assessment and simulation of waterand nitrogen transfer under furrow irrigation Part II. Application of Hydrus2D model tosimulate nitrogen transfer, Ecology in future, Bulgarian Journal of ecological science, V(3),17-26, 2006.
43. Rocha D, F. Abbasi, and J. Feyen, Sensitivity analysis of soil hydraulic properties on
subsurface water flow in furrows, J. of Irrigation and Drainage Engineering-ASCE, 132(4),418-424, 2006.
44. Wöhling, Th., A. Fröhner, G. H. Schmitz, and R. Liedl, Efficient solution of the coupled onedimensional surface—two-dimensional subsurface flow during furrow irrigation advance,
Journal of Irrigation and Drainage Engineering, 132(4), 380-388, 2006.
2004

45. Abbasi F., J. Feyen, and M. Th. van Genuchten, Two-dimensional simulation of water flow
and solute transport below furrows: Model calibration and validation, Journal of Hydrology,290(1-2), 63-79, 2004.
46. Wöhling, Th., G. H. Schmitz; and J.-C. Mailhol, Modeling two-dimensional infiltration fromirrigation furrows, Journal of Irrigation and Drainage Engineering, 130(4), 296–303, 2004.
47. Wöhling, Th., R. Singh, and G. H. Schmitz, Physically based modeling of interacting
surface–subsurface flow during furrow irrigation advance, Journal of Irrigation andDrainage Engineering, 130(5), 349-356, 2004.
Pre2000
48. Butters, G. L., J. G. Benjamin, L. R. Ahuja, and H. Ruan, Bromide and atrazine leaching infurrow- and sprinkler-irrigated corn, Soil Sci. Soc. Am. J., 64(5), 1723-1732, 2000.
49. Benjamin, J. G., H. R. Havis, L. R. Ahuja, and C. V. Alonso, Leaching and water flow patternsin every-furrow and alternate-furrow irrigation, Soil Sci. Soc. Am. J., 58, 1511-1517, 1994.