Millions of people are undernourished globally and with the population growing, food security is a major concern. Food security is multifaceted, requiring advancements in food safety, ensuring products have a good shelf life, reducing spoilage and providing dietary additions to improve the nutrient intake of the population. The application of microbiology is far reaching, and new approaches are required to maintain food security. Through an improved understanding of plant-microbe interactions, it is possible to forecast and mitigate food shortages.
Researchers have identified a novel transport protein that binds cyclic β-1,2-glucans, revealing unexpected diversity in bacterial sugar uptake mechanisms.
Read storyNew research has identified a key cluster of genes that can be moved from rhizobia bacteria that harvest nitrogen into bacteria that don’t — raising the possibility that microbes that dwell in cereal crops could eventually be engineered to atmospherically harvest nitrogen as well.
A new study shows that pairing biochar with beneficial Bacillus bacteria can unlock soil phosphorus, improve root growth, and increase cherry tomato yield by 23.53% under greenhouse cultivation.
Soil obtained from across nine UK locations was used to cultivate six key arable crops. Researchers found that although the local soil environment selected which kinds of bacteria were present, the crop species determined the beneficial microbial functions of those bacteria.
Researchers have developed an antifungal aqueous suspension for the prevention of fungal infections in crops and fruit during the pre- and post-harvest stages. The new formulation is aimed at the biotechnology and agricultural sectors.
To help strengthen global collaboration and showcase innovative biotics research, The International Scientific Association for Probiotics and Prebiotics (ISAPP) is organizing a scientific symposium on October 6, 2026 in Tokyo, Japan in conjunction with its annual meeting.
Applied Microbiology International is calling on members to contribute after the UK government proposed a major overhaul of fertiliser regulation through a new framework: the UK Fertilising Product Regulations (UK FPR).
Scientists identified the microbial and biochemical profiles of three artisan cheeses made locally in Oxfordshire across their maturation process, and found that the bacteria responsible for a cheese’s character could also benefit the people who eat it.
Inspired by the widely used and user-friendly COVID-19 strip test kits, a team of science students has developed a test kit for detecting pathogens in milk and dairy products. They combined the LAMP technique with strip test technology to create a simple screening tool for harmful bacteria.
In a full-season field test, a nanoscale spray activated a two-part defense system in rice, slashing grain cadmium content by nearly 50% while improving the harvest.
For years, scientists have unsuccessfully tried to breed crops that could resist Botrytis cinerea. New research suggests decades of crop breeding strategies may have overlooked a crucial piece of the puzzle: the pathogen itself. The problem may lie in a fundamental misunderstanding of how plants and the pathogen interact.
A new study evaluated 25 cocoa cultivars and identified two with superior performance. Both demonstrated a greater ability to maintain high productivity in mineral-poor soils and when attacked by the witches’ broom fungus. Production increased by up to 32% compared to more susceptible varieties.
Scientists have uncovered a previously unknown mechanism that helps a widely used biological pesticide become more effective. The study reveals how bacteria produce ultra-strong protein fibers that form a molecular net, trapping infectious spores and toxins into a sticky film that enhances their ability to kill insect pests.
Corn diseases cost farmers an estimated $13.8 billion USD from 2020 to 2023, according to a new multiyear analysis led by plant disease specialists from across the United States and Ontario, Canada.
Researchers discovered unexpectedly strong seasonal variation in algae in the surface soils of farmland. Xanthophyceae were the most abundant when it was colder, at the time points in spring and autumn; whereas Cyanobacteria and green algae were prevalent shortly before crop harvest in summer.
Engineered proteins must be created in the real world and tested for performance - a labor-intensive process that involves constructing the DNA instructions for each protein in yeast or bacteria and growing individual clones for protein production and testing. Researchers say they have condensed the time-intensive protein building and testing process to just 24 hours.
A research team has developed DeepTYLCV, an accurate and interpretable artificial intelligence model for predicting the virulence of Tomato Yellow Leaf Curl Virus (TYLCV). DeepTYLCV uses viral genome-derived sequence information, enabling the model to identify mild and severe strains before symptom-based confirmation.
Every year, millions of gallons of wine are pressed, leaving behind a mountain of pulpy residue that wineries struggle to dispose of. Now, researchers say this overlooked byproduct could serve as a replacement for the antibiotics routinely added to chicken feed.
Researchers in the UK have shown how the distributions of two phytoplankton groups – known to produce natural toxins that can halt shellfish harvesting – have changed in the North East Atlantic over the last six decades.
Researchers have identified a natural, eco-friendly way to significantly increase agricultural yields while also improving the quality and taste of produce. The study focuses on an extract derived from the yeast-like fungus Pseudozyma aphidis.
The industrial application of Monascus pigments has been hindered by three key bottlenecks: unstable yield, poor environmental stability, and the risk of contamination by citrinin. Researchers adopted an epigenetic derepression strategy to unlock the hidden biosynthetic potential of MPs in Talaromyces purpurogenus OUCMDZ-019.
Researchershave created biodegradable, “wearable” sensors for plants to monitor their health, made from carbon ink and screen-printed onto transparent cellulose acetate bioplastics. They can monitor temperature, humidity, dehydration, biomarkers, diseases, nutrient levels, and the presence of pesticides.
By adding lignin- and humus-based small molecules (LSMs and HSMs) to straw-amended soils, researchers observed remarkable gains in the formation of stable mineral- and particulate-associated carbon, driven by shifts in microbial communities and enhanced cross-trophic interactions.