Reductions of endogenous gibberellin content impact fruit development and modify tomato fruit metabolism during ripening

被引:0
作者
Martins, Auxiliadora O. [1 ]
Silva, Welder A. [1 ]
Vallarino, Jose G. [2 ]
Omena-Garcia, Rebeca P. [1 ]
Osorio, Sonia [2 ]
Fernie, Alisdair R. [3 ]
Nunes-Nesi, Adriano [1 ]
Ribeiro, Dimas Mendes [1 ]
Araujo, Wagner L. [1 ]
机构
[1] Univ Fed Vicosa, Natl Inst Sci & Technol Plant Physiol Stress Condi, Dept Biol Vegetal, BR-36570900 Vicosa, MG, Brazil
[2] Univ Malaga, Consejo Super Invest Cient, Inst Horto Fruticultura Subtrop & Mediterranea La, Malaga, Spain
[3] Max Planck Inst Mol Pflanzenphysiol, Muhlenberg 1, D-14476 Potsdam, Germany
关键词
Flowering; Fruit set; Hormone; Metabolism; <italic>Solanum lycopersicum</italic>; FLOWER DEVELOPMENT; SOLANUM-LYCOPERSICON; SUCROSE-TRANSPORTERS; HORMONAL-REGULATION; ANTHER DEVELOPMENT; MASS-SPECTROMETRY; PLANT HORMONES; CELL-DIVISION; CHLOROPHYLL-A; SHOOT APEX;
D O I
10.1007/s10725-025-01287-6
中图分类号
Q94 [植物学];
学科分类号
071001 ;
摘要
Gibberellins (GAs) play a crucial role in modulating developmental processes throughout the plant life cycle. They are particularly significant during the transition and maintenance of the reproductive meristem, as well as in facilitating the development of floral organs. Additionally, GAs regulate the early stages of fruit development, in coordination with auxin and cytokinin, likely due to their involvement in both division and cell expansion. However, it remains unclear whether fluctuations in endogenous GA levels influence fruit development and metabolism during ripening. To address this, we investigated tomato mutant plants deficient in GAs biosynthesis (gib3, moderately deficient; gib2, intermediate deficiency and gib1, extremely deficient in GAs). Notably, gib2 and gib1 mutants were characterized by a complete interruption of their reproductive development at the floral bud level. Although gib3 plants displayed a slight delay in fruit development, at the end of fruit ripening both wild type (WT) and gib3 fruits were highly similar. Only minor differences were found between WT and gib3 mutant plants in terms of floral development and total fruit yield. Our findings revealed that reduced GA levels in gib3 mutant did not result in morphological modifications in fruits, and relatively few metabolic changes were observed between genotypes during fruit ripening. Typical metabolic changes during ripening, including increments in amino acids and soluble sugars along with decreases in starch, were observed. Collectively, our study demonstrate that GAs play a crucial role in transitioning plants from the vegetative to reproductive stage and in initiating fruit set.
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收藏
页码:497 / 514
页数:18
相关论文
共 105 条
  • [11] Fruit carbohydrate metabolism in an introgression line of tomato with increased fruit soluble solids
    Baxter, CJ
    Carrari, F
    Bauke, A
    Overy, S
    Hill, SA
    Quick, PW
    Fernie, AR
    Sweetlove, LJ
    [J]. PLANT AND CELL PHYSIOLOGY, 2005, 46 (03) : 425 - 437
  • [12] COMPARISON OF ENT-KAURENE SYNTHETASE A-ACTIVITY AND B-ACTIVITY IN CELL-FREE-EXTRACTS FROM YOUNG TOMATO FRUITS OF WILD-TYPE AND GIB-1, GIB-2, AND GIB-3 TOMATO PLANTS
    BENSEN, RJ
    ZEEVAART, JAD
    [J]. JOURNAL OF PLANT GROWTH REGULATION, 1990, 9 (04) : 237 - 242
  • [13] Remarkable Reproducibility of Enzyme Activity Profiles in Tomato Fruits Grown under Contrasting Environments Provides a Roadmap for Studies of Fruit Metabolism
    Biais, Benoit
    Benard, Camille
    Beauvoit, Bertrand
    Colombie, Sophie
    Prodhomme, Duyen
    Menard, Guillaume
    Bernillon, Stephane
    Gehl, Bernadette
    Gautier, Helene
    Ballias, Patricia
    Mazat, Jean-Pierre
    Sweetlove, Lee
    Genard, Michel
    Gibon, Yves
    [J]. PLANT PHYSIOLOGY, 2014, 164 (03) : 1204 - 1221
  • [14] Winter Memory throughout the Plant Kingdom: Different Paths to Flowering
    Bouche, Frederic
    Woods, Daniel P.
    Amasino, Richard M.
    [J]. PLANT PHYSIOLOGY, 2017, 173 (01) : 27 - 35
  • [15] The Arabidopsis lue1 mutant defines a katanin p60 ortholog involved in hormonal control of microtubule orientation during cell growth
    Bouquin, T
    Mattsson, O
    Næsted, H
    Foster, R
    Mundy, J
    [J]. JOURNAL OF CELL SCIENCE, 2003, 116 (05) : 791 - 801
  • [16] BRADFORD MM, 1976, ANAL BIOCHEM, V72, P248, DOI 10.1016/0003-2697(76)90527-3
  • [17] Genetic Control of Carbon Partitioning in Grasses: Roles of Sucrose Transporters and Tie-dyed Loci in Phloem Loading
    Braun, David M.
    Slewinski, Thomas L.
    [J]. PLANT PHYSIOLOGY, 2009, 149 (01) : 71 - 81
  • [18] Gibberellin regulation of fruit set and growth in tomato
    Carlos Serrani, Juan
    Sanjuan, Rafael
    Ruiz-Rivero, Omar
    Fos, Mariano
    Luis Garcia-Martinez, Jose
    [J]. PLANT PHYSIOLOGY, 2007, 145 (01) : 246 - 257
  • [19] Metabolic regulation underlying tomato fruit development
    Carrari, Fernando
    Fernie, Alisdair R.
    [J]. JOURNAL OF EXPERIMENTAL BOTANY, 2006, 57 (09) : 1883 - 1897
  • [20] Integrated analysis of metabolite and transcript levels reveals the metabolic shifts that underlie tomato fruit development and highlight regulatory aspects of metabolic network behavior
    Carrari, Fernando
    Baxter, Charles
    Usadel, Bjorn
    Urbanczyk-Wochniak, Ewa
    Zanor, Maria-Ines
    Nunes-Nesi, Adriano
    Nikiforova, Victoria
    Centero, Danilo
    Ratzka, Antje
    Pauly, Markus
    Sweetlove, Lee j
    Fernie, Alisdair R.
    [J]. PLANT PHYSIOLOGY, 2006, 142 (04) : 1380 - 1396