Research Keyword: plant resistance

A tale for two roles: Root-secreted methyl ferulate inhibits P. nicotianae and enriches the rhizosphere Bacillus against black shank disease in tobacco

Tobacco plants release a natural chemical called methyl ferulate from their roots that has a powerful two-pronged defense against a devastating soil disease called black shank. First, the methyl ferulate directly kills the fungus by disrupting its energy production. Second, it attracts beneficial bacteria called Bacillus to the soil around the roots, which further fight the disease. Scientists found they could boost this defense by engineering a tobacco gene that produces more methyl ferulate, making plants much more resistant to infection. This discovery offers farmers an affordable, natural way to control soil diseases without synthetic chemicals.

Read More »

Powdery Mildew Caused by Leveillula taurica (Synonym: Phyllactinia taurica): A Global Challenge for Pepper Production

Powdery mildew caused by the fungus Leveillula taurica is a major disease affecting pepper crops worldwide, potentially reducing yields by up to 50%. The disease appears as white powder on pepper leaves and can be managed through resistant pepper varieties, proper farming practices, beneficial microbes, and fungicide treatments. Scientists have identified genetic sources of resistance in pepper that could help breeders develop more resistant varieties for sustainable agriculture.

Read More »

Genotype-by-genotype interactions reveal transcription patterns underlying resistance responses in Norway spruce to Heterobasidion annosum s.s

This study examined how different types of Norway spruce trees respond to infection by a fungus that causes root rot. Researchers found that the spruce tree’s genetics are more important than the fungus’s virulence in determining disease severity. Resistant tree clones activate specific defense genes early in infection, particularly genes related to pathogen recognition, while susceptible trees mount a delayed and broader response. Understanding these genetic differences could help with breeding more resistant trees for forests.

Read More »

Editorial: Unraveling pathogen-plant-microbiome interactions in horticultural crops through omics approaches

This editorial presents a collection of research on how diseases affect valuable crops like tomatoes, tea, and potatoes. Scientists used advanced genetic and molecular techniques to understand how pathogens infect plants and how the beneficial microbes around plant roots can help fight disease. The studies suggest that managing crop diseases sustainably requires understanding the complex interactions between pathogens, plants, and their microbial communities.

Read More »

Integrated transcriptome and metabolome profiling reveals mechanisms underlying the infection of Cytospora mali in “Jin Hong” branches

This research examined how apple trees defend themselves against a serious fungal disease called Valsa canker caused by Cytospora mali. Scientists used advanced genetic and chemical analysis techniques to identify which genes and protective compounds are activated when apple branches are infected. They found that healthy apple trees fight the infection by strengthening their cell walls, producing special protective enzymes, and accumulating defense chemicals like α-linolenic acid and betaine. These discoveries could help develop better ways to prevent or manage this destructive disease in apple orchards.

Read More »

A GDP-mannose-1-phosphate guanylyltransferase as a potential HIGS target against Sclerotinia sclerotiorum

Scientists identified a critical fungal protein called SsMPG2 that helps the plant disease-causing fungus Sclerotinia sclerotiorum infect crops and survive. When this protein is silenced using genetic engineering techniques, plants become resistant to the fungus. The research shows this protein is important in many plant-pathogenic fungi, making it a promising target for developing disease-resistant crops through genetic modification.

Read More »
Scroll to Top