Results 101 to 110 of about 72,441 (275)

Evaluating Syrphid Fly Predation on Aphids Under Controlled and Field Conditions in High Tunnels: A Comparative Study With Lacewings

Journal of Applied Entomology, Volume 150, Issue 6, Page 693-705, July 2026.
ABSTRACT Biological control in high tunnel systems can be optimised by matching predator species to seasonal environmental conditions. We evaluated the predatory efficacy of syrphid flies (Toxomerus marginatus (Say), Eupeodes americanus (Fabricius)) and lacewings (Chrysoperla carnea (Stephens), Chrysoperla rufilabris (Burmeister)) across laboratory ...
Allison Zablah, Marlo Gunnar McCarter, Christian H. Krupke, Laura L. Ingwell   +3 more
wiley   +1 more source

COCHLEATA controls spatial regulation of cytokinin and auxin during nodule development

New Phytologist, Volume 251, Issue 1, Page 228-244, July 2026.
Nodule development defects in the coch mutant include root‐like structures, reduced colonisation, and vascular disorganisation. Summary Root nodules host nitrogen‐fixing bacteria and likely evolved through modifications of the lateral root program. Members of the NOOT‐BOP‐COCH‐LIKE transcriptional coregulator family suppress root identity in nodules ...
Karen Velandia, Muhammad Nouman Sohail, Tiana E. Scott, Alejandro Correa‐Lozano, Alannah Mannix, Eloise Foo   +5 more
wiley   +1 more source

Prospects of the use of wild relatives for pea (Pisum sativum L.) breeding

Вавиловский журнал генетики и селекции, 2015
The current global climate change results in shift and shrinkage of ranges of crop cultivation. The potential of crop wild relatives as an important source of genetic diversity for breeding is underestimated.
O. E. Kosterin
doaj   +1 more source

Comparative proteomics analysis of root and nodule mitochondria of soybean

Plant, Cell &Environment, Volume 49, Issue 7, Page 3482-3499, July 2026.
Abstract Legumes perform symbiotic nitrogen fixation through rhizobial bacteroids housed in specialised root nodules. The biochemical process is energy‐intensive and consumes a huge carbon source to generate sufficient reducing power. To maintain the symbiosis, malate is supplied by legume nodules to bacteroids as their major carbon and energy source ...
Wai‐Ching Sin, Jinhong Liu, Jia Yi Zhong, Hon‐Ming Lam, Boon Leong Lim   +4 more
wiley   +1 more source

Allium sativum L

, 2018
Published as part of Fiorito, Serena, Epifano, Francesco, Preziuso, Francesca, Taddeo, Vito Alessandro & Genovese, Salvatore, 2018, Selenylated plant polysaccharides: A survey of their chemical and pharmacological properties, pp. 1-10 in Phytochemistry 153 on page 3, DOI: 10.1016/j.phytochem.2018.05.008, http://zenodo.org/record ...
Fiorito, Serena, Epifano, Francesco, Preziuso, Francesca, Taddeo, Vito Alessandro, Genovese, Salvatore   +4 more
openaire   +2 more sources

CRISPR/Cas‐Mediated Gene Editing in Plant Immunity and Its Potential for the Future Development of Fungal, Oomycete, and Bacterial Pathogen‐Resistant Pulse Crops

Plant, Cell &Environment, Volume 49, Issue 7, Page 3573-3585, July 2026.
ABSTRACT Pulses provide myriad health benefits and are advantageous in an environmental context as a result of their leguminous nature. However, phytopathogenic fungi, oomycetes and bacteria pose a substantial threat to pulse production, at times leading to crop failure.
Stacy D. Singer, Mohammed M. Mukthar, Udaya Subedi, Hari Poudel, Guanqun Chen, Nora Foroud, Syama Chatterton   +6 more
wiley   +1 more source

Tripartite Symbiosis Between Legumes, Arbuscular Mycorrhizal Fungi and Nitrogen Fixing Rhizobia: Interactions and Regulation

Plant, Cell &Environment, Volume 49, Issue 7, Page 3789-3807, July 2026.
ABSTRACT Legume plants can interact with nitrogen‐fixing rhizobia bacteria and arbuscular mycorrhizal fungi (AMF) simultaneously, forming a tripartite symbiotic association. Co‐inoculation studies performed on a variety of legumes have shown that rhizobia and AMF influence each other when they co‐occur in tripartite association and affect host plant ...
Polyxeni Gorgia, Daniela Tsikou
wiley   +1 more source

sativum

, 1988
Pisum sativum L.Field PeaPois de grande cultureTorrington, ABCathy ...
BR88:HO26, Dorreen Landymore
core  

New Integrative Vectors Increase Agrobacterium rhizogenes Transformation and Help Characterise Roles for Soybean GmTML Gene Family Members

Plant, Cell &Environment, Volume 49, Issue 7, Page 3824-3836, July 2026.
ABSTRACT Hairy‐root transformation is widely used to generate transgenic plant roots for genetic functional characterisation studies. However, transformation efficiency can be limited, largely due to the use of binary vectors. Here, we report on the development of novel integrative vectors that significantly increase the transformation efficiency of ...
Huanan Su, Mengbai Zhang, Estelle B. Grundy, Brett J. Ferguson   +3 more
wiley   +1 more source

Lepidium sativum Linnaeus 1753

, 2007
Lepidium sativum Linnaeus, Species Plantarum 2: 644. 1753. "Habitat - - - –” RCN: 4685. Lectotype (Fawcett & Rendle, Fl. Jamaica 3: 243. 1914): Herb. Linn. No. 824.11 (LINN). Current name: Lepidium sativum L.
Jarvis, Charlie
core   +1 more source