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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Teresa Eileen Snyder-Leiby and Shixiong Wang
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
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
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
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
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
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
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
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
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