Land has a wide variety of uses: agricultural, residential, industrial, and recreational. Microbes play a key role in the terrestrial ecosystem, providing symbiotic relationships with plants. Human use of land has led to the exhaustion of nutrients in soils, contamination of land, and a reduction in biodiversity. Applying our knowledge of microbes will be essential in restoring the biodiversity of affected ecosystems. Greater research into how microbes impact human life on land could all have a positive impact, by increasing crop production, repurposing areas of land and improving microbial biodiversity in soil, land, and water.
A group of researchers has confirmed the identity of the first lichens to inhabit Earth, Spongiophyton, around 410 million years ago, in great detail for the first time. The study confirms that the symbiosis between fungi and algae that dissolves rocks helped form the first soils.
Read storyA collaborative team of researchers have developed groundbreaking tools that allow grasses—including major grain crops like corn—to act as living biosensors capable of detecting minute amounts of chemicals in the field.
Scientists have completed a spaceflight biology investigation aboard the International Space Station (ISS) that reveals how microgravity fundamentally alters microbial metabolism, limiting the efficiency of biological manufacturing processes critical to future long-duration space missions.
A study of wild African herbivores offers new insight into how environmental conditions – not just diet and anatomy – can influence the evolution of gut microbes that play a critical role in animal health and well-being.
Researchers investigating how epigenetic regulators influence resistance to downy mildew in Brassica rapa identified BrHDA6 as a positive regulator of disease resistance and demonstrated that it enhances immunity by modifying a key enzyme in salicylic acid metabolism.
Antibiotic resistance is often framed as a hospital problem, but a growing body of evidence shows that the environment plays an equally critical role in the global spread of drug resistant bacteria. Rivers, soils, wastewater, and even the air can act as reservoirs for antibiotic resistance genes that may eventually ...
A University of Stirling student who is the latest recipient of the Nikos Steiropoulos Aquaculture Scholarship from MSD Animal Health UK says the award has helped to “open a door she could only have dreamed of”.
Slippery, drippy goop makes Ralstonia bacteria devastating killers of plants, causing rapid wilting in tomato, potato and a wide range of other crops, according to new research.
Researchers have coupled two powerful tools that allow scientists to identify which proteins work together to make plant-fungi partnerships function—and to verify those interactions in living plant roots, where the collaboration actually occurs.
By resurrecting a 3.2-billion-year-old enzyme and studying it inside living microbes, researchers have created a new way to improve our understanding of the origins of life on Earth. The study uses synthetic biology to reverse-engineer modern enzymes and rebuild their possible ancestors.
Methane eating microbes could help turn a powerful greenhouse gas into everyday products like animal feed, green plastics, and cleaner fuels, according to a new scientific review of fast moving research on these unusual bacteria.
Antibiotic resistance in human and animal health is on the forefront of public debate, but it’s a less well-known issue in plant agriculture. However, antibiotics are important tools in fruit production, and their efficacy hinges on avoiding resistance in disease-causing bacteria.
A new Perspective article sets out a path to uncover the role of biofilms in health during long-duration spaceflight, and how spaceflight research can reshape our understanding of these microbial communities on Earth.
The asteroid that struck the Earth 66 million years ago devastated life across the planet, wiping out the dinosaurs and other organisms. But new research shows new species of plankton appeared fewer than 2,000 years after the world-altering event.
A new study shows that certain symbiotic bacteria wrap their rotating flagella around their cell bodies to form a “screw thread.” This configuration lets them propel forward through one-micrometer-wide passages, such as those inside insect guts, that would otherwise trap or immobilize them.
Researchers have identified the specific species of the Brucella bacterium that causes illness in animals in Cameroon. A study of more than 4,600 livestock animals found that the only Brucella species present was Brucella abortus, a species primarily associated with cattle that causes pregnancy loss and infertility.
Researchers have developed a pine‑bark–based water‑treatment medium that efficiently removes antibiotics as well as residues of blood‑pressure and antidepressant medicines from wastewater treatment plant effluent.
Rhamnolipids (RL) are widely used in areas such as oil recovery and bioremediation, but their industrial production has long faced key challenges in the scale-up stage, including poor scalability and reproducibility.
The Journal of Applied Microbiology is kicking off 2026 with the unveiling of four key Research Themes under the JAM umbrella. Each Theme encompasses emerging hot topics and leading-edge research that align with AMI’s goal to apply microbiology to solving the world’s greatest challenges.
A new study demonstrates a sustainable microbial strategy for producing lauryl glucoside by engineering a non-natural biosynthetic pathway in Escherichia coli, revealing precursor availability as a key bottleneck and moving towards greener biomanufacturing.
By reconstructing the complete biosynthetic pathway inside Saccharomyces cerevisiae and systematically removing metabolic bottlenecks, researchers created the first yeast platform capable of producing calycosin-7-glucoside from simple carbon sources.
By identifying four key enzymes from a North American plant and reconstituting them in yeast, scientists have achieved complete de novo biosynthesis of complex oxindole molecules that are difficult to obtain from plants or chemical synthesis.
A new study establishes a robust yeast-based platform that overcomes the long-standing trade-off between yield and sulfation, enabling sustainable, high-level production of high-quality chondroitin sulfate without reliance on animal sources.