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Teresa Eileen Snyder-Leiby and Shixiong Wang

starch mobilization and identified a new transglucosidase that inhibits starch breakdown. Excessive starch grain accumulation can be associated with imbalances in source/sink relationships or abnormalities with phloem loading or unloading ( Chen and Cheng

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Russell Galanti, Alyssa Cho, Amjad Ahmad, and Javier Mollinedo

, 1992 ). Seasonal source–sink relationships between vegetative and reproductive growth also influence leaf N status; for example, developing fruits during the summer act as an N sink ( Fletcher et al., 2009 ). While it is known that increasing N supply

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Jiaming Yu, Timothy K. Broschat, William G. Latham, and Monica L. Elliott

Phytophthora ( Guest and Grant, 1991 ). Phosphite movement tends to be regulated by source–sink relationships ( Guest and Grant, 1991 ). In this case, the source is leaflet tissue of existing leaves and the sink is the newly emerging spear leaf. It is not

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Kaori Itagaki, Toshio Shibuya, Motoaki Tojo, Ryosuke Endo, and Yoshiaki Kitaya

, M.C. Spencer-Phillips, P.T. 1996 Effects of pathogens and parasitic plants on source-sink relationships, p. 479–499. In: E. Zamski and A.A. Schaffer (eds.). Photoassimilate distribution in plants and crops. Marcel Dekker, New York, NY Bazzaz, F

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Aude Tixier, Adele Amico Roxas, Jessie Godfrey, Sebastian Saa, Dani Lightle, Pauline Maillard, Bruce Lampinen, and Maciej A. Zwieniecki

, functional–structural plant models have been developed to study plant reproductive and vegetative growth from the perspectives of carbohydrate partitioning and source–sink relationships ( Allen et al., 2005 ; Da Silva et al., 2014 ; DeJong et al., 2011

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Emily K. Dixon, Bernadine C. Strik, and David R. Bryla

relationships in ‘Titan’ red raspberry Acta Hort. 352 151 157 Fernandez, G.C. Pritts, M.P. 1994 Growth, carbon acquisition, and source-sink relationships in ‘Titan’ red raspberry J. Amer. Soc. Hort. Sci. 119 1163 1168 Fernandez, G.E. Pritts, M.P. 1996 Carbon

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Ben-Hong Wu, Ning Niu, Ji-Hu Li, and Shao-Hua Li

Source-sink relationships (mainly leaves vs. reproductive organs) play an important role in fruit growth and quality with respect to fruit size, color, and chemical composition. Grape is a species well suited for exploring the mechanisms that govern

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Yue Wen, Shu-chai Su, Ting-ting Jia, and Xiang-nan Wang

photosynthesis rate ( Proietti et al., 2000 ) and chlorophyll fluorescence parameters ( Wen et al., 2018a ). Furthermore, various leaves have different source–sink relationships, resulting in differences in assimilate partitioning and carbon contributions to

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Jer-Chia Chang and Tzong-Shyan Lin

shading and relation to endogenous abscisic acid Scientia Hort. 36 281 292 Yuan, R. Huang, H. 1993 Regulation of root and shoot growth and fruit-drop of young litchi trees by trunk girdling in view of source-sink

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ZhaoSen Xie, Charles F. Forney, WenPing Xu, and ShiPing Wang

organization based on source-sink relationship: New findings on developmental, biochemical and molecular responses to environment 263 280 Roubelakis-Angelakis K.A. Molecular biology & biotechnology of grapevine Kluwer Academic Publishers