[1] dos Santos T P, Lopes C M, Rodrigues M L, de Souza C R, Maroco J P, Pereira J S, Silva J R, Chaves M M. Partial rootzone drying: Effects on growth and fruit quality of field-grown grapevines (Vitis Vinifera). Functional Plant Biology, 2003, 30(6): 663-671.
[2] Kang S Z, Zhang J H. Controlled alternate partial root-zone irrigation: Its physiological consequences and impact on water use efficiency. Journal of Experimental Botany, 2004, 55(407): 2437-2446.
[3] Mingo D M, Theobald J C, Bacon M A, Davies W J, Dodd I C. Biomass allocation in tomato (Lycopersicon esculentum) plants grown under partial rootzone drying: Enhancement of root growth. Functional Plant Biology, 2004, 31(10): 971-978.
[4] Vandeleur R K, Sullivan W, Athman A, Jordans C, Gilliham M, Kaiser B N, Tyerman S D. Rapid shoot-to-root signalling regulates root hydraulic conductance via aquaporins. Plant, cell & environment, 2014, 37(2): 520-538.
[5] Bray E A. Abscisic acid regulation of gene expression during water-deficit stress in the era of the arabidopsis genome. Plant, cell & environment, 2002, 25(2): 153-161.
[6] Liu F L, Shahnazari A, Andersen M N, Jacobsen S E, Jensen C R. Physiological responses of potato (Solanum Tuberosum L.) to partial root-zone drying: ABA signalling, leaf gas exchange, and water use efficiency. Journal of Experimental Botany, 2006, 57(14): 3727-3735.
[7] Benjamin J G, Nielsen D C. Water deficit effects on root distribution of soybean, field pea and chickpea. Field Crops Research, 2006, 97(2): 248-253.
[8] Songsri P, Jogloy S, Vorasoot N, Akkasaeng C, Patanothai A, Holbrook C C. Root distribution of drought-resistant peanut genotypes in response to drought. Journal of Agronomy and Crop Science, 2008, 194(2): 92-103.
[9] Taiz L, Zeiger E. Plant Physiology. 4th Edition. Sinauer Associates, Inc., Sunderland, 2006: 763-764.
[10] Thompson A J, Andrews J, Mulholland B J, McKee J M T, Hilton H W, Horridge J S, Farquhar G D, Smeeton R C, Smillie I R A, Black C R. Overproduction of abscisic acid in tomato increases transpiration efficiency and root hydraulic conductivity and influences leaf expansion. Plant Physiology, 2007, 143(4): 1905-1917.
[11] Hu T T, Kang S Z, Li F S, Zhang J H. Effects of partial root-zone irrigation on hydraulic conductivity in the soil-root system of maize plants. Journal of Experimental Botany, 2011, 62(12): 4163-4172.
[12] Wang H Q, Liu F L, Andersen M N, Jensen C R. Comparative effects of partial root-zone drying and deficit irrigation on nitrogen uptake in potatoes (Solanum tuberosum L.). Irrigation Science, 2009, 27(6): 443-448.
[13] Liang H L, Li F S, Nong M L. Effects of alternate partial root-zone irrigation on yield and water use of sticky maize with fertigation. Agricultural Water Management, 2013, 116(1): 242-247.
[14] Sampathkumar T, Pandian B J, Mahimairaja S. Soil moisture distribution and root characters as influenced by deficit irrigation through drip system in cotton-maize cropping sequence. Agricultural Water Management, 2012, 103: 43-53.
[15] Chaves M M, Santos T P, Souza C R, Ortuno M F, Rodrigues M L, Lopes C M, Maroco J P, Pereira J S. Deficit irrigation in grapevine improves water-use efficiency while controlling vigour and production quality. Annals of Applied Biology, 2007, 150(2): 237-252.
[16] De Souza C R, Maroco J P, Dos Santos T P, Rodrigues M L, Lopes C M, Pereira J S, Chaves M M. Grape berry metabolism in field-grown grapevines exposed to different irrigation strategies. Vitis, 2005, 44(3): 103-109.
[17] Rodrigues M L, Santos T P, Rodrigues A P, de Souza C R, Lopes C M, Maroco J P, Pereira J S, Chaves M M. Hydraulic and chemical signalling in the regulation of stomatal conductance and plant water use in field grapevines growing under deficit irrigation. Functional Plant Biology, 2008, 35(7): 565-579.
[18] Smart D R, Carlisle E, Goebel M, Nunez B A. Transverse hydraulic redistribution by a grapevine. Plant Cell and Environment, 2005, 28(2): 157-166.
[19] Martre P, North G B, Nobel P S. Hydraulic conductance and mercury-sensitive water transport for roots of opuntia acanthocarpa in relation to soil drying and rewetting. Plant Physiology, 2001, 126(1): 352-362.
[20] 郝树荣, 郭相平, 王为木, 张烈君, 王琴, 王青梅. 胁迫后复水对水稻叶面积的补偿效应. 灌溉排水学报, 2005, 24(4): 19-32.
Hao S R, Guo X P, Wang W M, Zhang L J, Wang Q, Wang Q M. The compensation effect of rewatering in subjecting to water stress on leaf area of rice. Journal of Irrigation and Drainage, 2005, 24(4): 19-32. (in Chinese)
[21] 刘展鹏. 模拟干旱胁迫及复水条件下玉米生长补偿效应[D]. 南京: 河海大学, 2007.
Liu Z P. Research on compensatory effects of growth under simulated water stress and rewatering on maize[D]. Nanjing: Hohai University, 2007. (in Chinese)
[22] 刘晚苟, 山仑, 邓西平. 干湿条件下土壤容重对玉米根系导水率的影响. 土壤学报, 2003, 40(5): 779-782.
Liu W G, Shan L, Deng X P. Effects of soil bulk density on hydraulic conductivity of maize roots under drying and wet conditions. Acta Pedologica Sinica, 2003, 40(5): 779-782. (in Chinese)
[23] 康绍忠, 张建华. 不同土壤水分与温度条件下土根系统中水分传导的变化及其相对重要性. 农业工程学报, 1997, 13(2): 76-81.
Kang S Z, Zhang J H. Hydraulic conductivities in soil-root system and relative importance at different soil water potential and temperature. Transactions of the Chinese Society of Agricultural Engineering, 1997, 13(2): 76-81. (in Chinese)
[24] Turner N C. Measurement of plant water status by the pressure chamber technique. Irrigation Science, 1988, 9(4): 289-308.
[25] 李和平. 植物显微技术. 北京: 科学出版社, 2009: 9-23.
Li H P. Plant Microscopy Techniques. Beijing: Science Press, 2009: 9-23. (in Chinese)
[26] Draye X, Kim Y, Lobet G, Javaux M. Model-assisted integration of physiological and environmental constraints affecting the dynamic and spatial patterns of root water uptake from soils. Journal of Experimental Botany, 2010, 61(8): 2145-2155.
[27] Yang Q L, Zhang F C, Li F S, Liu X G. Hydraulic conductivity and water-use efficiency of young pear tree under alternate drip irrigation. Agricultural Water Management, 2013, 119(1): 80-88.
[28] 牛晓丽, 胡田田, 刘亭亭, 吴雪, 冯璞玉, 刘杰, 李康, 张富仓. 适度局部水分胁迫提高玉米根系吸水能力. 农业工程学报, 2014, 30(22): 80-86.
Niu X L, Hu T T, Liu T T, Wu X, Feng P Y, Liu J, LI K, Zhang F C. Appropriate partial water stress improves maize root absorbing capacity. Transactions of the Chinese Society of Agricultural Engineering, 2014, 30(22): 80-86. (in Chinese)
[29] Lindorf H. Eco-anatomical wood features of species from a very dry tropical forest. Iawa Journal, 1994, 15(4): 361-376.
[30] 王周锋, 张岁岐, 刘小芳. 玉米根系水流导度差异及其与解剖结构的关系. 应用生态学报, 2005, 16(12): 2349-2352.
Wang Z F, Zhang S Q, Liu X F. Root system hydraulic conductivity of different genotype maize and its relationship with root anatomy. Chinese Journal of Applied Ecology, 2005, 16(12): 2349-2352. (in Chinese)
[31] Boughalleb F, Abdellaoui R, Ben-Brahim N, Neffati M. Anatomical adaptations of astragalus gombiformis pomel. Under drought stress. Central European Journal of Biology, 2014, 9(12): 1215-1225.
[32] Enstone D E, Peterson C A, Ma F S. Root endodermis and exodermis: Structure, function, and responses to the environment. Journal of Plant Growth Regulation, 2002, 21(4): 335-351.
[33] Miyamoto N, Steudle E, Hirasawa T, Lafitte R. Hydraulic conductivity of rice roots. Journal of Experimental Botany, 2001, 52 (362): 1835-1846.
[34] Perumalla C J, Peterson C A. Deposition of Casparian bands and suberin lamellae in the exodermis and endodermis of young corn and onion roots. Canadian Journal of Botany, 1986, 64(9): 1873-1878.
[35] Schreiber L, Hartmann K, Skrabs M, Zeier J. Apoplastic barriers in roots: Chemical composition of endodermal and hypodermal cell walls. Journal of experimental botany, 1999, 50(337): 1267-1280.
[36] Newman E I. Permeability to water of the roots of five herbaceous species. New Phytologist, 1973, 72(3): 547-555.
[37] Rieger M, Litvin P. Root system hydraulic conductivity in species with contrasting root anatomy. Journal of Experimental Botany, 1999, 50(331): 201-209.
[38] Franke R, Schreiber L. Suberin—a biopolyester forming apoplastic plant interfaces. Current Opinion in Plant Biology, 2007, 10(3): 252-259.
[39] Lo Gullo M A, Nardini A, Salleo S, Tyree M T. Changes in root hydraulic conductance (KR) of Olea oleaster seedlings following drought stress and irrigation. New Phytologist, 1998, 140(1): 25-31.
[40] Vandeleur R, Niemietz C, Tilbrook J, Tyerman S D. Roles of aquaporins in root responses to irrigation. Plant and Soil, 2005, 274 (1): 141-161.
[41] Du N, Guo W H, Zhang X R, Wang R Q. Morphological and physiological responses of Vitex negundo L. var. heterophylla (Franch.) Rehd. to drought stress. Acta Physiologiae Plantarum, 2010, 32(5): 839-848.
[42] Zhou Q, Ravnskov S, Jiang D, Wollenweber B. Changes in carbon and nitrogen allocation, growth and grain yield induced by arbuscular mycorrhizal fungi in wheat (Triticum Aestivum L.) subjected to a period of water deficit. Plant Growth Regulation, 2015, 75(3): 751-760.
[43] Lei Y B, Yin C Y, Li C Y. Differences in some morphological, physiological, and biochemical responses to drought stress in two contrasting populations of populus przewalskii. 2006, 127(2): 182-191. Physiologia plantarum,
[44] Ben-Asher J, Silberbush M. Root distribution under trickle irrigation: Factors affecting distribution and comparison among methods of determination. Journal of Plant Nutrition, 1992, 15(6/7): 783-794.
[45] Gallardo M, Turner N C, Ludwig C. Water relations, gas exchange and abscisic acid content of lupinus cosentinii leaves in response to drying different proportions of the root system. Journal of experimental botany, 1994, 45(7): 909-918. |