Results 11 to 20 of about 988 (173)
The partial nucleotide sequence of the coat protein (CP) gene of Ethiopian isolates of chickpea chlorotic stunt virus (CpCSV, genus Polerovirus), beet western yellows virus (BWYV, genus Polerovirus), and soybean dwarf virus (SbDV, genus Luteovirus) was ...
Anteneh Ademe +7 more
doaj +2 more sources
Identification of New Chickpea Virus and Control of Chickpea Virus Disease. [PDF]
Objective. The objective of the study was to discuss the classification, virus characteristics, detection methods, and control measures of chickpea virus, with an aim to provide a theoretical basis for identification of new chickpea virus and control of chickpea virus disease. Methods.
Cun Z.
europepmc +2 more sources
Beet Chlorosis Virus Infection Mitigates Aphid-Induced Plant Defences and Improves Plant Acceptability to Aphid Vectors. [PDF]
ABSTRACT Plant viruses often alter host traits in ways that affect interactions with herbivores, potentially facilitating their own acquisition and transmission by insect vectors. However, little is known about the molecular mechanisms underlying this phenomenon.
Armand T +5 more
europepmc +2 more sources
Distribution and identification of luteovirids affecting chickpea in Sudan [PDF]
In Sudan yellowing viruses are key production constraints in pulse crops. Field surveys were carried out to identify luteovirids affecting chickpea crops in the major production regions (Gezira Scheme and River Nile State).
Hamed, Abdelmagid +4 more
core +4 more sources
New persistent plant RNA virus carries mutations to weaken viral suppression of antiviral RNA interference. [PDF]
Rice tiller inhibition virus 2, originating from wild rice, carries mutations at residues that are broadly conserved among poleroviruses, and these mutations weaken viral suppression of RNAi, allowing for persistent infection. Abstract Persistent plant viruses are widespread in natural ecosystems. However, little is known about why persistent infection
Zhu LJ +12 more
europepmc +2 more sources
Recessive resistance against beet chlorosis virus is conferred by the eukaryotic translation initiation factor (iso)4E in Beta vulgaris. [PDF]
Summary Eukaryotic translation initiation factors (eIFs) are important for mRNA translation but also pivotal for plant‐virus interaction. Most of these plant‐virus interactions were found between plant eIFs and the viral protein genome‐linked (VPg) of potyviruses.
Rollwage L +5 more
europepmc +2 more sources
Genetic diversity and recombination between turnip yellows virus strains in Australia [PDF]
Disease outbreaks caused by turnip yellows virus (TuYV), a member of the genus Polerovirus, family Luteoviridae, regularly occur in canola and pulse crops throughout Australia.
Aftab, Mohammad +10 more
core +1 more source
A review of sources of resistance to turnip yellows virus (TuYV) in Brassica species
Turnip yellow virus (TuYV) is an important/damaging pathogen for brassicas, including oilseed rape (Brassica napus; A+C genomes). Annual UK losses of 67 million GBP have been estimated in oilseed rape; losses in mainland Europe must be much greater. Many resistant commercial varieties are available, however they are all based on the same resistance ...
Kyle Macleod +8 more
wiley +1 more source
Riboswitches regulate the expression of bacterial genes in response to small molecular metabolites. In thermophilic bacteria these RNA structures have to withstand extreme temperatures. Here we show that a protonated cytidine nucleotide, as part of an intricate hydrogen bond network, is essential in maintaining the functional conformation of a preQ1 ...
Stefanie Rückriegel +2 more
wiley +1 more source
Abstract Sugar beet (Beta vulgaris L. ssp. vulgaris Doell.) was originally selected from white fodder beet in the 1780s and was then specifically bred for sucrose production. The relatively recent inception of the crop has led to a narrow genetic base that has bottlenecked sustainable improvement.
Muhammad Massub Tehseen +7 more
wiley +1 more source

