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本文引用的文献

1
Humidity and light affect the growth, development and nitrogenase activity of stem nodules of Sesbania rostrata Brem.湿度和光照会影响喙荚田菁茎瘤的生长、发育及固氮酶活性。
New Phytol. 1993 Dec;125(4):749-755. doi: 10.1111/j.1469-8137.1993.tb03924.x.
2
Nitrogen-fixing stem nodules of the Legume, Discolobium pulchellum Benth.豆科植物美丽异木棉的固氮茎瘤
New Phytol. 1994 Oct;128(2):283-295. doi: 10.1111/j.1469-8137.1994.tb04012.x.
3
Common components of the infection thread matrix and the intercellular space identified by immunocytochemical analysis of pea nodules and uninfected roots.免疫细胞化学分析豌豆根瘤和未感染根发现感染丝基质和细胞间隙的共同成分。
EMBO J. 1989 Feb;8(2):335-41. doi: 10.1002/j.1460-2075.1989.tb03382.x.
4
Bacteriochlorophyll and Photosynthetic Reaction Centers in Rhizobium Strain BTAi 1.根瘤菌 BTAi1 中的细菌叶绿素和光合反应中心
Appl Environ Microbiol. 1990 Nov;56(11):3445-9. doi: 10.1128/aem.56.11.3445-3449.1990.
5
Stem and Root Nodulation in Aeschynomene spp.三叶鬼针草属植物的茎和根结瘤
Appl Environ Microbiol. 1985 Sep;50(3):732-4. doi: 10.1128/aem.50.3.732-734.1985.
6
Initial stages in the morphogenesis of nitrogen-fixing stem nodules of Sesbania rostrata.喙荚田菁固氮茎瘤形态发生的初始阶段。
J Bacteriol. 1983 Nov;156(2):888-97. doi: 10.1128/jb.156.2.888-897.1983.

热带湿地豆科植物弗鲁米嫩河合萌上的茎瘤和根瘤。

Stem and root nodules on the tropical wetland legume Aeschynomene fluminensis.

作者信息

Loureiro M F, James E K, Sprent J I, Franco A A

机构信息

Universidade Federal de Mato Grosso, Faculdade de Agronomic, Cuiabá, MT 78060-900, Brazil.

Plant Science Laboratories, Sir Harold Mitchell Building, University of St Andrews, Fife KYI6 9AL, UK.

出版信息

New Phytol. 1995 Aug;130(4):531-544. doi: 10.1111/j.1469-8137.1995.tb04330.x.

DOI:10.1111/j.1469-8137.1995.tb04330.x
PMID:33874487
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC7168032/
Abstract

Aeschynomene fluminensis Veil., originally obtained from flooded areas of the Pantanal Matogrossense region of Brazil, was grown under stem-flooded or non-flooded conditions for 70 d after inoculation with isolates of photosynthetic stem nodule rhizobia obtained from native A. fluminensis. Stem nodules formed only on submerged stems of flooded plants (mean of 25 per plant), and did not form on aerial parts, although they were capable of growing and fixing N after drainage of the stems. Root nodules formed on both non-flooded and flooded plants but were usually decreased in number by flooding (from means of 124 to 51 per plant, respectively). Flooding (and stem-nodulation) resulted in an increase in shoot (and a decrease in root) dry weight, regardless of rhizobial isolate. Stem nodules were attached by a wide collar of aerenchymatous tissue at the base of the nodule. There were large air spaces in the stem where nodules were subtended and these were continuous with nodule aerenchyma/outer cortex. In addition, aerenchyma and spongy tissue at the base of the nodule connected both flooded and non-flooded root nodules to large intercellular spaces in the root cortex. The stem and root nodules were ovoid in shape, and essentially aeschynomenoid in type, i.e. the central infected tissue was without uninfected, interstitial cells. Root nodules had a similar structure to stem nodules (although stem nodules were generally larger), and flooded root nodules were approximately twice the size of non-flooded nodules. The infected tissue of root and stem nodules consisted of spherical, bacteroid-containing cells containing one or two rod-shaped bacteroids per peribacteroid unit and prominent organelles. Infection threads were observed in root but not in stem nodules. The cortex of stem and root nodules had an apparent oxygen diffusion barrier, consisting of concentric layers of small cells with interlocking cell walls and few intercellular spaces. Cell layers external to these consisted of larger cells and intercellular spaces, with some spaces being occluded with an electron-dense material that contained a glycoprotein recognized by the monoclonal antibodies MAC236 and MAC265. The amount of glycoprotein occlusions did not appear to differ between nodule types or treatments, although stem nodules contained intracellular glycoprotein vesicles adjacent to cell walls. The exterior of the nodules consisted of an epidermis of thin flattened cells with occasional lenticels. Amyloplasts were common in lower stem and hypocotyl nodules, but fewer in flooded or non-flooded root nodules. Upper stem nodules (i.e. those within 6 cm of the water surface) differed from more profoundly submerged stem nodules by having chloroplasts throughout the cortex. Root nodules did not contain chloroplasts, and undifferentiated plastids were found mainly in lower stem nodules.

摘要

弗卢米嫩塞合萌(Aeschynomene fluminensis Veil.)最初采自巴西马托格罗索潘塔纳尔地区的洪涝区域,在接种从当地弗卢米嫩塞合萌分离得到的光合茎瘤根瘤菌后,于茎淹水或非淹水条件下培养70天。茎瘤仅在淹水植株的淹没茎上形成(平均每株25个),地上部分不形成,不过茎排水后它们能够生长并固氮。根瘤在非淹水和淹水植株上均有形成,但数量通常因淹水而减少(分别从平均每株124个降至51个)。无论根瘤菌分离株如何,淹水(以及茎瘤形成)都会导致地上部干重增加(根部干重减少)。茎瘤通过瘤基部宽的通气组织环附着。在瘤下方的茎中有大的气腔,这些气腔与瘤通气组织/外皮层相连。此外,瘤基部的通气组织和海绵组织将淹水和非淹水的根瘤与根皮层中的大细胞间隙相连。茎瘤和根瘤呈卵形,本质上属于合萌型,即中央被感染组织没有未被感染的间质细胞。根瘤与茎瘤结构相似(尽管茎瘤通常更大),淹水根瘤的大小约是非淹水根瘤的两倍。根瘤和茎瘤的被感染组织由球形、含类菌体的细胞组成,每个类菌体周缘单位含有一或两个杆状类菌体以及显著的细胞器。在根瘤中观察到侵染丝,而茎瘤中未观察到。茎瘤和根瘤的皮层有明显的氧气扩散屏障,由具有互锁细胞壁和少量细胞间隙的小细胞同心层组成。这些细胞层外部由较大的细胞和细胞间隙组成,一些间隙被一种电子致密物质堵塞,该物质含有可被单克隆抗体MAC236和MAC265识别的糖蛋白。尽管茎瘤细胞壁附近含有细胞内糖蛋白囊泡,但糖蛋白堵塞量在瘤类型或处理之间似乎没有差异。瘤的外部由薄的扁平细胞表皮组成,偶尔有皮孔。造粉体在下部茎和下胚轴瘤中常见,但在淹水或非淹水根瘤中较少。上部茎瘤(即水面6厘米以内的那些)与更深淹没的茎瘤不同,其整个皮层都有叶绿体。根瘤不含叶绿体,未分化的质体主要见于下部茎瘤。