Photoassimilate partitioning in hypernodulation mutant of soybean (<i>Glycine max</i>(L.) Merr.) NOD1-3 and its parent williams in relation to nitrate inhibition of nodule growth

Fujikake, Hiroyuki; Tamura, Yoshihiro; Ohtake, Norikuni; Sueyoshi, Kuni; Ohyama, Takuji

doi:10.1080/00380768.2003.10410048

Cited by 12 publications

(8 citation statements)

References 36 publications

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“…The supernodulation line first reported was nominated "nts", which means "nitrate-tolerant symbiosis" mutant [60]. The labeling experiments using 14 CO 2 or 13 CO 2 indicated that the hypernodulating mutant NOD1-3 supplied a larger amount of photoassimilate to the nodules than to the roots under nitrogen free conditions, and that the photoassimilate transport to the nodules was less sensitive to nitrate than that of the parent line [69].…”

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confidence: 99%

Soybean Seed Production and Nitrogen Nutrition

Ohyama¹,

Minagawa²,

Ishikawa³

et al. 2013

A Comprehensive Survey of International Soybean Research - Genetics, Physiology, Agronomy and Nitrogen Relationships

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mentioning

confidence: 99%

Soybean Seed Production and Nitrogen Nutrition

Ohyama¹,

Minagawa²,

Ishikawa³

et al. 2013

A Comprehensive Survey of International Soybean Research - Genetics, Physiology, Agronomy and Nitrogen Relationships

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“…Nodule organogenesis is activated in response to lipochitooligosaccharides, specific signal molecules called Nod factors which are synthesized by compatible strains of rhizobia (Lerouge et al 1990, Truchet et al 1991. Nodule structures allow the fixation of atmospheric nitrogen, but are sometimes energetically expensive to develop while still maintaining the normal growth of the host leguminous plant since the process of nitrogen fixation requires a large quantity of photosynthetic products (Fujikake et al 2003, Ito et al 2006. Therefore, the number of nodules is controlled by a self-regulating mechanism known as autoregulation, in which previous nodulation events inhibit the over-production of nodules on young root tissues (Pierce andBauer 1983, Caetano-Anolles et al 1991).…”

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confidence: 99%

Involvement of polyamines in the root nodule regulation of soybeans (Glycine max)

Terakado-Tonooka

Fujihara

2008

Plant Root

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____________________________________________________________________________________________________________________________________________________________________________ Terakado-Tonooka J, Fujihara S 2008 Involvement of polyamines in the root nodule regulation of soybeans (Glycine max). Plant Root 2: 46-53. doi:10.3117/plantroot.2.46 Copyrights 2008, Plant Root (JSRR), www.plantroot.org R Re ev vi ie ew w a ar rt ti ic cl le eAbstract: In leguminous plants, infection with rhizobia leads to the formation of root nodules that fix atmospheric nitrogen and supply it as ammonium to the host plant cells. The formation of nitrogen-fixing nodules is nutritionally beneficial, but excessive nodule production appears to be detrimental to the host legumes because of the resultant over-consumption of photosynthetic products. Therefore, the number of root nodules in leguminous plants is tightly regulated by shoot-root signaling known as a feedback or autoregulation of nodulation. Recently, we found that foliar application of polyamines and an effective inhibitor of polyamine biosynthesis regulates the number of nodules in soybean plants. In this review, we discuss the possible function of polyamines as a systemic regulator of nodule formation.

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“…Under our conditions, when the plants were grown under –N conditions, the total dry weight of inoculated Williams at day 17 after sowing (Table 2, Inoculation –N) was 103% of that of uninoculated Williams at day 18 after sowing (Table 2, Uninoculation –N), while the total dry weight of inoculated NOD lines (Table 2, Inoculation –N) was 84–92% of those of each line without inoculation (Table 2, Uninoculation –N). Less vigorous plant growth of hypernodulation mutants may occur because of substantial amounts of photosynthate allocation to profuse numbers of nodules (Fujikake et al. 2003).…”

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confidence: 99%

Characteristics of initial growth of hypernodulation soybean mutants, NOD1-3, NOD2-4 and NOD3-7, affected by inoculation of bradyrhizobia and nitrate supply

Ito

Ohtake

Sueyoshi

et al. 2007

Soil Science and Plant Nutrition

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The characteristics of plant growth of hypernodulation soybean mutant lines NOD1-3, NOD2-4 and NOD3-7 were compared with their parent cv. Williams. The plants were grown using hydroponics in an illuminated growth chamber with or without seed inoculation of bradyrhizobia, and in the absence or presence of nitrate in the culture solution. When the plants were grown without inoculation, the total dry weight of all mutant lines was not different statistically from Williams, both in the absence and presence of nitrate. When they were grown with inoculation of bradyrhizobia, however, the total dry weight of each mutant line was significantly lower than that of Williams, both in the absence and presence of nitrate.These results indicate that the reduced accumulation of total dry matter of hypernodulation mutant lines compared with the wild type may be a secondary effect passively resulting from the large number of nodules, while the hypernodulation trait is a primary effect of the mutated gene. When the plants were grown with inoculation, the nodule number was decreased by the presence of nitrate in Williams, NOD1-3 and NOD2-4, but not in NOD3-7. NOD3-7 may be the most tolerant to nitrate inhibition of nodulation among the NOD mutant lines. In contrast, leaf growth of NOD3-7 and NOD1-3 was different from the wild type; the expanded leaf was smaller, but the leaf emergence rate was faster compared with Williams under all conditions. This indicates that NOD3-7 and NOD1-3 might decrease the ability for leaf expansion or may have a faster leaf emergence rate.

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Photoassimilate partitioning in hypernodulation mutant of soybean (Glycine max(L.) Merr.) NOD1-3 and its parent williams in relation to nitrate inhibition of nodule growth

Cited by 12 publications

References 36 publications

Soybean Seed Production and Nitrogen Nutrition

Soybean Seed Production and Nitrogen Nutrition

Involvement of polyamines in the root nodule regulation of soybeans (Glycine max)

Characteristics of initial growth of hypernodulation soybean mutants, NOD1-3, NOD2-4 and NOD3-7, affected by inoculation of bradyrhizobia and nitrate supply

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