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.
South Georgia’s breeding population of female southern elephant seals (Mirounga leonina) may have been halved by highly pathogenic avian influenza virus (HPAIV), finds new research. These losses may threaten the security of the island’s breeding population.
Read storyResearchers have imaged a heritable form of bacterial symbiosis inside the reproductive system of tiny crustaceans known as ostracods. Bacteria from the genus Cardinium live inside the egg cells and tissues of ostracod ovaries, transmitted from mothers to offspring.
A new study suggests that Arctic fungi appear to form opportunistic partnerships with whatever plant hosts are available, rather than maintaining exclusive relationships. This flexibility may help both plants and fungi cope with rapid environmental change.
Results from a study of mosquito larvae conducted in a natural area in the municipality of São Paulo (Brazil) may help estimate the effects of climate change on disease transmission risk in the biome.
Emissions of the greenhouse gas methane from lakes and reservoirs risk doubling by the end of the century due to climate change according to a new study. This in turn could raise Earth’s temperature more than suggested by the UN climate panel IPCC’s current worst-case scenario.
Jonas Flohr from Portsmouth reports back on his AMI-sponsored summer studentship at Durham University investigating how metals influence bacterial ecosystems.
Researchers have described the bacteriophage Bas63 in unprecedented detail, supporting new mechanistic understanding of how these viruses function.
Researchers demonstrate that bacteria can both create fabric and dye it in every color of the rainbow—all in one pot. The approach offers a sustainable alternative to the chemical-heavy practices used in today’s textile industry.
Researchers have identified a new species of ancient symbiotic fungus preserved within a 407-million-year-old plant fossil from Scotland. The discovery provides unprecedented three-dimensional insight into one of the earliest known plant–fungus partnerships.
Scientists have devised a reliable way to introduce a natural pathogen in colonies, so that invasive tawny crazy ant populations collapse and other native species can recover.
By embedding Bacillus spores within engineered living materials, researchers have created living materials that not only endure harsh environments but can also be programmed to perform specific tasks. These materials may be a sustainable replacement for fossil-based materials.
A new study offers an innovative way to track the spread of leishmaniasis, a parasitic disease affecting both animals and humans. Researchers developed a fast, reliable method to identify sand fly species, detect Leishmania parasites, and determine the source of their blood meals from a single sample.
Researchers found that efforts to track dog-related rabies in poorer areas of Peru’s second largest city were lacking even though more dogs were found to have the disease there than in wealthier neighborhoods.
A new study has identified Aegilops cylindrica, a wild grass closely related to wheat, as a powerful genetic reservoir for resistance against the devastating fungal pathogen Zymoseptoria tritici—the cause of Septoria tritici blotch (STB).
Grassland degradation fundamentally reshapes how biodiversity supports ecosystem multifunctionality, shifting it from being plant-dominated to being mediated by soil microbes, according to a new study of alpine grassland on the Tibetan Plateau.
Professor Joana Falcao Salles, a professor of Microbial Community Ecology at the University of Groningen, has been named as the newest winner of the Basil Jarvis Food Security and Innovation Award.
Using single particle spectroscopy, researchers revealed insights into how different types of photosynthetic bacteria can use a shared mechanism to protect themselves from too much sunlight.
Research has cast light on the evolutionary origins of one of nature’s first motors, which developed 3.5 billion to 4 billion years ago to propel bacteria. Scientists have created the most comprehensive picture yet of the evolution of bacterial stators.
A global meta-analysis of orchid-fungal associations leads to a general conclusion: an orchid’s fungal community is driven more strongly by its ecophysiology and biogeography than by its phylogeny.
While plastics are already recognized as a global environmental threat, a new commentary highlights that their microscopic airborne forms could also play a hidden role in human infection.
A research team has identified a novel principle in biology that mathematically explains why the growth of organisms slows as nutrients become more abundant—a phenomenon known as “the law of diminishing returns.”
A study reveals the fundamental physical principles underlying bacterial FM signal processing, and demonstrated that FM decoding mechanisms enable bacteria to increase information entropy by approximately 2 bits compared to traditional AM in three-gene regulatory systems.
This study reveals how thermophilic bacterial communities withstand temperatures of up to 87°C by remodeling their molecular machinery. Scientists uncovered a heat-defense network centered on heat shock proteins that refold damaged enzymes and preserve protein structure.