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محمودآبادی, مجید, زمانی, سمیرا, یزدان پناه, نجمه. (1400). تأثیرپذیری هدررفت کربن آلی و غنی‎شدگی رسوب طی فرسایش بین‎شیاری ناشی از وقوع هم‌زمان باد و باران. سامانه مدیریت نشریات علمی, 13(1), 13-28. doi: 10.22092/ijwmse.2020.343053.1799
مجید محمودآبادی; سمیرا زمانی; نجمه یزدان پناه. "تأثیرپذیری هدررفت کربن آلی و غنی‎شدگی رسوب طی فرسایش بین‎شیاری ناشی از وقوع هم‌زمان باد و باران". سامانه مدیریت نشریات علمی, 13, 1, 1400, 13-28. doi: 10.22092/ijwmse.2020.343053.1799
محمودآبادی, مجید, زمانی, سمیرا, یزدان پناه, نجمه. (1400). 'تأثیرپذیری هدررفت کربن آلی و غنی‎شدگی رسوب طی فرسایش بین‎شیاری ناشی از وقوع هم‌زمان باد و باران', سامانه مدیریت نشریات علمی, 13(1), pp. 13-28. doi: 10.22092/ijwmse.2020.343053.1799
محمودآبادی, مجید, زمانی, سمیرا, یزدان پناه, نجمه. تأثیرپذیری هدررفت کربن آلی و غنی‎شدگی رسوب طی فرسایش بین‎شیاری ناشی از وقوع هم‌زمان باد و باران. سامانه مدیریت نشریات علمی, 1400; 13(1): 13-28. doi: 10.22092/ijwmse.2020.343053.1799

تأثیرپذیری هدررفت کربن آلی و غنی‎شدگی رسوب طی فرسایش بین‎شیاری ناشی از وقوع هم‌زمان باد و باران

مهندسی و مدیریت آبخیز
مقاله 2، دوره 13، شماره 1، فروردین 1400، صفحه 13-28    اصل مقاله (1.16 M)
نوع مقاله: مقاله پژوهشی
شناسه دیجیتال (DOI): 10.22092/ijwmse.2020.343053.1799
نویسندگان
مجید محمودآبادی* 1؛ سمیرا زمانی2؛ نجمه یزدان پناه3
1استاد گروه علوم و مهندسی خاک، دانشکده کشاورزی، دانشگاه شهید باهنر کرمان
2گروه علوم و مهندسی خاک، دانشکده کشاورزی، دانشگاه شهید باهنر کرمان
3گروه مهندسی آب، واحد کرمان، دانشگاه آزاد اسلامی، کرمان
چکیده
فرسایش بین‌شیاری یکی از انواع مهم فرسایش در اراضی کشاورزی است که باعث هدررفت کربن آلی از سطح خاک می‎شود. این در حالی است که کمبود کربن آلی خاک در بیش‌تر مناطق خشک و نیمه‌خشک ایران، یکی از چالش‌های پیش‌روی تولید محصولات کشاورزی است. در این مناطق، بارش باران ممکن است با وزش بادهای فرساینده همراه باشد که مقادیر زیادی از خاک و کربن آلی را از بین می‌برد. لذا، پژوهش حاضر با هدف بررسی نقش عوامل فرساینده باد و باران بر هدررفت خاک و کربن آلی و نیز غنی‎شدگی رسوب طی رخ‌داد فرسایش بین‎شیاری برنامه‌ریزی شده است. بدین‌منظور، با استفاده از سامانه شبیه‎ساز هم‌زمان باد و باران، ترکیبی از سه شدت باران (20، 40 و 60 میلی‎متر بر ساعت) و چهار سرعت باد (صفر، 6، 9 و 12 متر بر ثانیه) روی سه خاک با بافت مختلف (شنی، لوم شنی و لوم)، هر یک در سه تکرار استفاده شده است. نتایج نشان داد که هدررفت کربن آلی بین خاک‌هایی با بافت مختلف از 04/0 و 04/4 میلی‌گرم بر متر در ثانیه متغیر بوده است. نتایج دلالت بر اثر متقابل هم‌افزای دو عامل فرساینده باد و باران بر هدررفت خاک و کربن آلی داشت. هم‌چنین برای سرعت باد، یک حد آستانه (نه متر بر ثانیه) مشاهده شد که در سرعت بیش‌تر از این حد، هدررفت خاک و کربن آلی با شیب تندتری افزایش پیدا کرد. از طرفی، با افزایش هدررفت خاک، میزان هدررفت کربن آلی از هر خاک نیز به‌صورت خطی افزایش پیدا کرد. سهم هدررفت کربن آلی از میزان کل هدررفت خاک برای خاک‌های شنی، لوم شنی و لوم به‌ترتیب 36/0، 17/0 و 19/2 درصد تعیین شد. هم‌چنین نسبت غنی‌شدگی کربن آلی در رسوب این خاک‌ها، به‌ترتیب 0/8، 0/1 و 1/2 بود. بر اساس یافته‌های این پژوهش، کاهش سرعت باد در اراضی کشاورزی به‌ویژه مناطق بادخیز، برای کنترل هدررفت کربن آلی در اثر فرسایش بین‌شیاری از خاک سطحی پیشنهاد می‌شود.
کلیدواژه‌ها
دینامیک کربن آلی؛ سرعت باد؛ شدت باران؛ خردشدن خاکدانه؛ عمق جریان
عنوان مقاله [English]
Organic carbon loss and sediment enrichment during interrill erosion influenced by simultaneous wind and rain
نویسندگان [English]
Majid Mahmoodabadi1؛ Samira Zamani2؛ Najme Yazdanpanah3
1Department of Soil Science, Agriculture Faculty, Shahid Bahonar University of Kerman
2Department of Soil Science, Agriculture Faculty, Shahid Bahonar University of Kerman, Iran
3Department of Water Engineering, Kerman Branch, Islamic Azad University, Kerman, Iran
چکیده [English]
Interrill erosion is one of the most important types of erosion in agricultural lands, causing organic carbon (OC) loss from the soil surface. However, soil OC deficiency is a challenge facing agricultural production in most arid and semi-arid regions of Iran. In these regions, rainfall may be associated with high-speed winds that may remove large amounts of soil and OC. Therefore, the present study was carried out to investigate the role of wind and rain as erosive factors on the soil and OC losses and sediment enrichment during erosion events in some contrasting soils. For this purpose, using a simultaneous wind and rain simulator, combinations of three rain intensities (20, 40 and 60 mm h-1) and four wind speeds (0, 6, 9 and 12 m s-1) were introduced on three soils (sandy, sandy loam, and loam), each at three replicates. The results showed that the OC loss from the soils changed from 0.04 to 4.04 mg m-1 s-1. Synergistic interaction between rain and wind on OC loss was detected. In addition, a threshold limit (9 m s-1) was observed for wind velocity, above which soil and OC losses increased sharply. On the other hand, with increasing soil loss, the OC loss from each soil increased linearly. The contribution of OC loss in the total soil loss for sandy, sandy loam and loam soils was 0.36, 0.17 and 2.19%, respectively. Moreover, the enrichment ratio of OC in the sediments of soils was 8.2, 1.01 and 12.2, respectively. Based on the findings of this study, the wind speed reduction is recommended in agricultural lands, especially in windy areas to control the losses of OC due to interrill erosion.
کلیدواژه‌ها [English]
Aggregate breakdown, Flow depth, Organic carbon dynamic, Rain intensity, Wind velocity
مراجع
  1. Begueria, S., M. Angulo-Martinez, L. Gaspar and A. Navas. 2015. Detachment of soil organic carbon by rainfall splash: experimental assessment on three agricultural soils of Spain. Geoderma, 245-246: 21-30.
  2. Brazier, R.E., L. Turnbull, J. Wainwright and R. Bol. 2014. Carbon loss by water erosion in drylands: implications from a study of vegetation change in the south-west USA. Hydrol Process, 28: 2212-2222.
  3. Defersha, M.B. and A.M. Melesse. 2012. Effect of rainfall intensity, slope and antecedent moisture content on sediment concentration and sediment enrichment ratio. Catena, 90: 47-52.
  4. Erpul, G., D. Gabriels, W. Cornelis, H. Samray and T. Guzelordu. 2008. Sand detachment under rains with varying angle of incidence. Catena, 72(3): 413-422.
  5. Erpul, G., D. Gabriels, L.D. Norton, D.C. Flanagan, C.H. Huang and S. Visser. 2013. Raindrop and flow interactions for interrill erosion with wind-driven rain. Journal of Hydraulic Research, 51(5): 548-557.
  6. Field, J.P., D.D. Breshears and J.J. Whichker. 2009. Toward a more holistic perspective of soilexplicitly consider fluvial processes and interaction. Aeolian Research, 1(2): 9-17.
  7. Gao, X., Y. Hu, Q. Sun, L. Du, P. Duan, L. Yao and S. Guo. 2018. Erosion-induced carbon losses and CO2 emissions from Loess and Black soil in China. Catena, 171: 533-540.
  8. Guo, T.L., Q.J. Wang, D.Q. Li, Z. Zhuang and L.S. Wu. 2013. Flow hydraulic characteristic effect on sediment and solute transport on slope erosion. Catena, 107: 145-153.
  9. Iserloh, T., W. Fister, M. Marzen, M. Seeger, N. Kuhn and J. Ries. 2013. The role of wind driven rain for soil erosion: an experimental approach. Geomorphology, 57(1): 193-201.
  10. Jacinthe, P.A., R. Lal, L. Owens and D. Hothem. 2004. Transport of labile carbon in runoff as affected by land use and rainfall characteristics. Soil and Tillage Research, 77: 111-123.
  11. Jakab, G., J. Szabo, Z. Szalai1, E. Meszaros, B. Madarasz, C. Centeri, B. Szabo, T. Nemeth and P. Sipos. 2016. Changes in organic carbon concentration and organic matter compound of erosion-delivered soil aggregates. Environmental Earth Sciences, 75: 144-153.
  12. Kemper, W.D. and R.C. Rosenau. 1986. Aggregate stability and size distribution. In: Klute, A. (Ed.), Methods of Soil Analysis. Madison (WI): ASA and SSSA, 425-442.
  13. Kheirabadi, H., M. Mahmoodabadi, V.R. Jalali and H. Naghavi. 2018. Sediment flux, wind erosion and net erosion influenced by soil bed length, wind velocity and aggregate size distribution. Geoderma, 323: 22-30.
  14. Kinnell, P.I.A. 2005. Raindrop-impact-induced erosion processes and prediction: a review. Hydrological Processes, 19: 2815-2844.
  15. Koiter, A.J., P.N. Owens, E.I. Petticrew and D.A. Lobb. 2017. The role of soil surface properties on the particle size and carbon selectivity of interrill erosion in agricultural landscapes. Catena, 153: 194-206.
  16. Kuhn, N.J., T. Hoffmann, W. Schwanghart and M. Dotterweich. 2009. Agricultural soil erosion and global carbon cycle: controversy over? Earth Surface Processes and Landforms, 34: 1033-1038.
  17. Kuhn, N.J., E.K. Armstrong, A.C. Ling, K.L. Connolly and G. Heckrath. 2012. Interrill erosion of carbon and phosphorus from conventionally and organically farmed Devon silt soils. Catena, 91: 94-103.
  18. Lal, R. 2004. Soil carbon sequestration to mitigate climate change. Geoderma, 123: 1-22.
  19. Li, G., Y. Fu, B. Li, T. Zheng, F. Wu, G. Peng and T. Xiao. 2018. Micro-characteristics of soil aggregate breakdown under raindrop action. Catena, 162: 354-359.
  20. Liu, L., Z.W. Li, X.F. Chang, X.D. Nie, C. Liua, H.B. Xiao and D.Y. Wang. 2018. Relationships of the hydraulic flow characteristics with the transport of soil organic carbon and sediment loss in the Loess Plateau. Soil and Tillage Research, 175: 291-301.
  21. Liu, L., Z. Li, H. Xiao, B. Wang, X. Nie, C. Liu, L. Ni and D. Wang. 2019. The transport of aggregates associated with soil organic carbon under the rain-induced overland flow on the Chinese Loess Plateau. Earth Surface Processes and Landforms, 84(3): 760-774.
  22. Mahmoodabadi, M. 2017. The necessity of standardization and integration of methods for measuring water and wind erosion in Iran. 15th Iranian Soil Science Congress, 28-30 August, Isfahan University of Technology, Isfahan, Iran (in Persian).
  23. Mahmoodabadi, M. 2019. Environmental impacts of soil erosion. 16th Iranian Soil Science Congress, 27-29 August, University of Zanjan, Zanjan, Iran (in Persian).
  24. Mahmoodabadi, M. and A. Cerdà. 2013. WEPP calibration for improved predictions of interrill erosion in semi-arid to arid environments. Geoderma, 204-205: 75-83.
  25. Mahmoodabadi, M. and B. Ahmadbeigi. 2013. Dry and water-stable aggregates in different cultivation systems of arid region soils. Arabian Journal of Geosciences, 6(8): 2997-3002.
  26. Mahmoodabadi, M. and S. Arjmand Sajjadi. 2016. Effects of rain intensity, slope gradient and particle size distribution on the relative contributions of splash and wash loads to rain-induced erosion. Geomorphology, 253: 159-167.
  27. Mahmoodabadi, M., H. Ghadiri, C. Rose, B. Yu, H. Rafahi and H. Rouhipour. 2014a. Evaluation of GUEST and WEPP with a new approach for the determination of sediment transport capacity. Journal of Hydrology, 513: 413-421.
  28. Mahmoodabadi, M., H. Ghadiri, B. Yu and C. Rose. 2014b. Morpho-dynamic quantification of flow-driven rill erosion parameters based on physical principles. Journal of Hydrology, 514: 328-336.
  29. Maïga-Yaleu, S.B., P. Chivenge, H. Yacouba, I. Guiguemde, H. Karambiri, O. Ribolzi, A. Bary and V. Chaplot. 2015. Impact of sheet erosion mechanisms on organic carbon losses from crusted soils in the Sahel. Catena, 126: 60-67.
  30. Martinez-Mena, M., V. Castillo and J. Albaladejo. 2002. Relations between interrill erosion processes and sediment particle size distribution in a semiarid Mediterranean area of SE of Spain. Geomorphology, 45: 261-275.
  31. Martinez-Mena, M., J. Lopez, M. Almagro, J. Albaladejo, V. Castillo, R. Ortiz and C. Boix-Fayos. 2012. Organic carbon enrichment in sediments: effects of rainfall characteristics under different land uses in a Mediterranean area. Catena, 94: 36-42.
  32. Marzen, M., T. Iserloh, M. Casper and J. Ries. 2015. Quantification of particle detachment by rain splash and wind-driven rain splash. Catena, 127: 135-141.
  33. Marzen, M., T. Iserloh, J.L.M. de Lima, W. Fister and J.B. Ries. 2017. Impact of severe rain storms on soil erosion: Experimental evaluation of wind-driven rain and its implications for natural hazard management. Science of the Total Environment, 590-591: 502-513
  34. Mchunu, C.N., S. Lorentz, G. Jewitt, A. Manson and V. Chaplot. 2011. No-till impact on soil and soil organic carbon erosion under crop residue scarcity in Africa. Soil Science Society of America Journal, 75: 1502-1511.
  35. Nadeu, E., J. De Vente, M. Martínez-Mena and C. Boix-Fayos. 2011. Exploring particle size distribution and organic carbon pools mobilized by different erosion processes at the catchment scale. Journal of Soils and Sediments, 11: 667-678.
  36. Nie, X., Z. Li, J. He, J. Huang, Y. Zhang, B. Huang, W. Ma, Y. Lu and G. Zeng. 2015. Enrichment of organic carbon in sediment under field simulated rainfall experiments. Environmental Earth Sciences, 74: 5417-5425.
  37. Pansu, M. and J. Gautheyrou. 2006. Handbook of soil analysis: mineralogical, organic and inorganic methods. Springer Science and Business Media, Germany, 26 pages.
  38. Parsons, A.J. and P.M. Stone. 2006. Effects of intra-storm variations in rainfall intensity on interrill runoff and erosion. Catena, 67: 68-78.
  39. Polyakov, V. and R. Lal. 2004. Soil erosion and carbon dynamics under simulated rainfall. Soil Science, 169(8): 590-599.
  40. Ramos, M. and J. Martinez-Casasnovas. 2006. Nutrient losses by runoff in vineyards of the Mediterranean Alt Penedes region (NE Spain). Agriculture, Ecosystems and Environment, 113: 356-363.
  41. Razali, N.M. and Y.B. Wah. 2011. Power comparisons of Shapiro-Wilk, Kolmogorov-Smirnov, Lilliefors and Anderson-Darling tests. Journal of Statistical Modeling and Analytics, 2(1): 21-31.
  42. Rezaei Arshad, R., M. Mahmoodabadi, M.H. Farpoor and M. Fekri. 2019. Experimental investigation of rain-induced splash and wash processes under wind-driven rain. Geoderma, 337: 1164-1174.
  43. Ries, J.B., W. Fister, T. Iserloh and M. Marzen. 2010. Wind-driven rain as a new challenge for in situ rainfall simulation experiments. EGU General Assembly Conference Abstracts, 2747 pages.
  44. Rimal, B.K. and R. Lal. 2009. Soil and carbon losses from five different land management areas under simulated rainfall. Soil and Tillage Research, 106: 62-70.
  45. Rodrigo Comino, J., T. Iserloh, T. Lassu, A. Cerdà, S.D. Keestra, M. Prosdocimi, C. Brings, M. Marzen, M.C. Ramos, J.M. Senciales, J.D. Ruiz Sinoga, M. Seeger and J.B. Ries. 2016. Quantitative comparison of initial soil erosion processes and runoff generation in Spanish and German vineyards. Science of the Total Environment, 565: 1165-1174.
  46. Schiettecatte, W., D. Gabriels, W.M. Cornelis and G. Hofman. 2008. Enrichment of organic carbon in sediment transport by interrill and rill erosion processes. Soil Science Society of America Journal, 72(1): 50-55.
  47. Shahabinejad, N., M. Mahmoodabadi, A. Jalalian and E. Chavoshi. 2019. The fractionation of soil aggregates associated with primary particles influencing wind erosion rates in arid to semiarid environments. Geoderma, 356: 113-125.
  48. Shi, P. and R. Schulin. 2018. Erosion-induced losses of carbon, nitrogen, phosphorus and heavy metals from agricultural soils of contrasting organic matter management. Science of the Total Environment, 618: 210-218.
  49. Sirjani, E. and M. Mahmoodabadi. 2014. Effects of sheet flow rate and slope gradient on sediment load. Arabian Journal of Geosciences, 7(1): 203-210.
  50. Visser, S.M., G. Sterk and O. Ribolzi. 2004. Techniques for simultaneous quantification of wind and water erosion in semi-arid regions. Journal of Arid Environments, 59: 699-717.
  51. Walkley, A. and I.A. Black. 1934. An examination of the Degtjareff method for determining soil organic matter and proposed modification of the chromic acid titration method. Soil Science Society of America Journal, 37: 29-38.
  52. Wang, G., B. Wu, L. Zhang, H. Jiang and Z. Xu. 2014. Role of soil erodibility in affecting available nitrogen and phosphorus losses under simulated rainfall. Journal of Hydrology, 514: 180-191.
  53. Wang, L., H. Huang, N.F. Fang, Y.H. Niu, T.W. Wang and Z.H. Shi. 2019. Selective transport of soil organic and inorganic carbon in eroded sediment in response to raindrop sizes and inflow rates in rainstorms. Journal of Hydrology, 575: 42-53.
  54. Wang, W., S. Yin, Y. Xie, B. Liu and Y. Liu. 2016. Effects of four storm patterns on soil loss from five soils under natural rainfall. Catena, 141: 56-65.
  55. Wei, S., X. Zhang, A. Neil, B. McLaughlinb, X. Chen, S. Jia and A. Liang. 2017. Impact of soil water erosion processes on catchment export of soil aggregates and associated SOC. Geoderma, 294: 63-69.
  56. Whicker, J.J., J.E. Pinder and D.D. Breshears. 2006. Increased wind erosion from forest wildfire: Implications for contaminant related risks. Journal of Environmental Quality, 35: 468-478.
  57. Xiao, H., G. Liu, M.A.M. Abd-Elbasit, X.C. Zhang, P.L. Liu, F.L. Zheng, J.Q. Zhang and F.N. Hu. 2017. Effects of slaking and mechanical breakdown on disaggregation and splash erosion. European Journal of Soil Science, 68(6): 797-805.
  58. Xiao, H., Z. Li, X. Chang, B. Huang, X. Nie, C. Liu, L. Liu, D. Wang and J. Jiang. 2018. The mineralization and sequestration of organic carbon in relation to agricultural soil erosion. Geoderma, 329: 73-81.
  59. Yan, H., S. Wang, C. Wang, G. Zhang and N. Patel. 2005. Losses of soil organic carbon under wind erosion in China. Global Change Biology, 11: 828-840.
  60. Yasar Korkanca, S.M. and G. Dorumb. 2019. The nutrient and carbon losses of soils from different land cover systems under simulated rainfall conditions. Catena, 172: 203-211.
  61. Zamani, S. and M. Mahmoodabadi. 2013. Effect of particle-size distribution on wind erosion rate and soil erodibility. Archives of Agronomy and Soil Science, 59(12): 1743-1753.
  62. Zamani, S., M. Mahmoodabadi, N. Yazdanpanah and M.H. Farpoor. 2020. Meteorological application of wind speed and direction linked to remote sensing images for the modeling of sand drift potential and dune morphology. Meteorological Applications, 27: 18-31.
  63. Zhang, G.H., B.Y. Liu, M.A. Nearing, C.H. Huang and K.L. Zhang. 2002. Soil detachment by shallow flow. Trans ASAE, 45: 351-357.
  64. Zhang, G.H., B.Y. Liu, G.B. Liu, X.W. He and M.A. Nearing. 2003. Detachment of undisturbed soil by shallow flow. Soil Science Society of America Journal, 66: 1475-1483.
  65. Zhang, S., X. Zhang, Z. Liu, Y. Sun, W. Liu, L. Dai and S. Fu. 2014. Spatial heterogeneity of soil organic matter and soil total nitrogen in a Mollisol watershed of Northeast China. Environmental Earth Sciences, 72(1): 275-288.
  66. Zhang, X.C. and Z.L. Wang. 2017. Interrill soil erosion processes on steep. Journal of Hydrology, 548: 652-664.
  67. Zhang, X.J., G. Liu and F. Zhang. 2018. Understanding erosion processes using rare earth element tracers in a preformed interrill-rill system. Science of the Total Environment, 625: 920-927.
آمار
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