Results 121 to 130 of about 22,968 (249)

SYMBIOSE ENTRE LEGUMINEUSES ET RHIZOBIA

, 2008
Le symbiose entre les légumineuses et les Rhizobia, est un relation bénéfique et réciproque permet pour les légumineuses de fixer l’azote atmosphérique par l’intermédiaire des bactéries spéciaux qui est les Rhizobia, ces légumineuses sécrètent des ...
Merzoug, H. Rahat, S., Barkati, Z et Daha, M.
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Challenges and limitations of introducing pigeonpea as a new crop into smallholder farming systems through farmer‐to‐farmer education in Zambia

PLANTS, PEOPLE, PLANET, Volume 8, Issue 6, Page 2080-2088, November 2026.
Legume plants offer generous benefits for both the planet and people by supporting sustainable farming, food and feed systems through their ability to symbiotically fix atmospheric nitrogen. While grain legumes are cultivated and consumed globally, their adoption, market development, and integration into cropping systems vary.
Hamid Khazaei, Sebastian Scott, Jarkko K. Niemi   +2 more
wiley   +1 more source

BBS for Rhizobia

, 2015
Presentation covers improving forage legume-rhizobia performance.
Steve Wakelin (3440696), Aurelie Laugraud (12078192), Clement Delestre (15394823)   +2 more
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How legumes recognize rhizobia [PDF]

, 2019
Legume plants have developed the capacity to establish symbiotic interactions with soil bacteria (known as rhizobia) that can convert N2 to molecular forms that are incorporated into the plant metabolism.
Dalla Vía, María Virginia, Blanco, Flavio Antonio, Zanetti, María Eugenia   +2 more
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Towards an In‐Depth Understanding of the Versatile Functions of Silicon in Legumes Under Biotic and Abiotic Stress: Identifying Research Gaps

Journal of Agronomy and Crop Science, Volume 212, Issue 6, November 2026.
ABSTRACT Studies have shown the vital role of silicon (Si) under stress conditions, suggesting it could be used as a basic fertilizer. Collectively, as a strategic approach under biotic and abiotic stress conditions, Si offers a sustainable means to boost legume resilience and productivity, thereby contributing significantly to food security amid ...
Muna A. Abdalla, Katya M. Aguilar Perez, Saad Sulieman, Karl H. Mühling   +3 more
wiley   +1 more source

Genetic Structure of Rhizobia Associated with Chamaecrista Fasciulata [PDF]

, 2015
The legume-rhizobia relationship is an important symbiosis. Studies have found variation in specificity and the functionality of symbiotic specificity can vary among plants of the same species and among rhizobia, as well as in concert with geographical ...
Dorman, Hanna Elizabeth
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Variation in poly-β-hydroxybutyrate synthesis in rhizobia reflects strain differentiation and temperature regulation

, 1993
Polyβ-hydroxybutyrate (PHB), a carbon storage polymer, occurs widely among prokaryotes including Rhizobium. Screening of 45 strains of rhizobia, isolated from nodules of legumes inhabiting different ecological regimes, showed a wide range of variation in
Babu, C. R., Nair, Suresh, Jha, Prakash K.   +2 more
core   +1 more source

Nodulation does not alter root hydraulic conductance in pea

New Phytologist, Volume 252, Issue 4, Page 1360-1365, November 2026.
Root hydraulic conductance (Kr) normalised by root dry mass (including nodules) under hydrated and drought conditions in Pisum sativum wild‐type (Frisson, Nod+), non‐nodulator (sym19, Nod−), and supernodulator (Psrdn1, Nod++).
Jiacan Sun, Timothy J. Brodribb, Ibrahim Bourbia, Eloise Foo   +3 more
wiley   +1 more source

Harvest Data - Plant biomass and rhizobia nodule data

, 2016
Harvest data for experiment looking at effects of rhizobia and mycorrhizal fungi on plant mass and rhizobia nodules. Column Names -- "Block" is a number 1-5 that represents the spatial block in which the plant is located within the greenhouse, "Plant_ID"
Stinchcombe, John R., John R. Stinchcombe (174354), Michelle E. Afkhami (2917079), Afkhami, Michelle E.   +3 more
core   +1 more source

Coordination of drought‐adaptive root growth plasticity through auxin homeostasis by the ZmSPL12–ZmYUC5 module in maize

New Phytologist, Volume 252, Issue 4, Page 1526-1544, November 2026.
Proposed model of ZmSPL12‐mediated drought resistance through auxin regulation. Summary Climate change‐induced drought increasingly threatens global maize production. Drought‐adaptive root plasticity in maize depends on auxin signaling, yet how auxin homeostasis is dynamically tuned in response to water deficit remains unclear.
Hua Xu, Lei Ma, Qingyun Zhang, Zhigang Zheng, Jiajing Li, Sen Yang, Yanfeng Zhao, Lian Jin, Binbin Zhao, Zhijing Bai, Jiyuan Cao, Youpeng Tao, Junjie Zou, Baobao Wang, Shujing Cheng, Jinfang Chu, Jiafan Liu, Haiyang Wang, Miaoyun Xu   +18 more
wiley   +1 more source