Researchers identified Nemuri peptides, derived from a sleep-inducing protein, that inhibit bacterial growth and protein synthesis. The peptides induce ribosomal condensation, reducing mobility and global protein synthesis, while showing low toxicity towards mammalian cells.
Researchers at Aarhus University found that bacteria can continue producing DNA after death, using a complex machinery involving viruses and enzymes. They developed a method to control the production of specific DNA structures, which could lead to new biological materials and applications in environmental biotechnology.
E. coli bacteria exhibit fastest growth at 37°C due to physical genome reorganization. This temperature-dependent adaptation is mediated by the H-NS protein.
Researchers found that collective bacterial migration helps them stay ahead of phages, while also enabling phages to infect a fraction of cells near the migrating front edge. This coexistence relies on chemotaxis, or bacteria moving in response to changing chemical levels in the environment.
Researchers at Tohoku University developed a method to predict sewer pipe corrosion by analyzing sulfate-reducing bacteria in wastewater. The method, which combines ecological modeling and machine learning, identified pipe sections at higher risk of corrosion and improved the accuracy of inspection records.
Researchers from the University of East Anglia have discovered 18 new bacterial species collected from prostate cancer patients, including previously linked species like Porphyromonas and Treponema. The study provides new insights into microbes in cancer patients and could uncover links that improve understanding of how cancer develops.
Researchers discovered that Escherichia coli can detect specific molecules released by Bifidobacterium, allowing it to adjust its own metabolism accordingly. This phenomenon, termed metabolic eavesdropping, reveals a new mechanism for gut microbiome regulation and suggests non-dominant bacteria form spatial hubs for beneficial interact...
Researchers found that bacteria, such as E. coli, use CRISPR-Cas immunity to transfer and incorporate DNA, accelerating genetic reshuffling under starvation stress. This process may help bacterial populations adapt to changing conditions, resembling a primitive form of sexual reproduction.
New research reveals that bacteria detect viruses when a viral enzyme cuts an important sensor molecule, triggering an immune response. This discovery could lead to the development of more effective phage therapies that can evade bacterial immune systems.
Researchers have developed a method to enrich plant-based foods with essential amino acids using microorganisms, making them more nutritious for humans and animals. This method has the potential to alleviate malnutrition in low-income countries and reduce nitrogen emissions from agriculture.
Mizzou researchers have developed an AI tool called MeLSI that can identify specific microbes driving key biological changes in the gut microbiome, which may indicate early warning signs of disease. The tool has shown promising results in detecting meaningful patterns in microbiome data that conventional methods miss.
A three-herb preparation restored immune function in rats exposed to simulated weightlessness and challenged with bacteria, suggesting a nutritional way to help crew health on long-duration missions. The study also highlights the potential for the formula to support individuals on the ground who experience similar immune declines.
Researchers developed LARGE, a language model-based tool that maps antibiotic resistance genes by species, linking aging shifts to chronic disease. The study found 31 bacterial species with changing resistance genes, tied to 13 age-related chronic diseases.
A new study by Danish researchers proposes a paradigm shift in understanding antibiotic resistance, highlighting the importance of environmental factors such as temperature, oxygen levels, and pH. This new knowledge may lead to more targeted treatments and better monitoring of resistance in humans, animals, and the environment.
Soil bacteria, particularly plant growth-promoting rhizobacteria, effectively degrade herbicides and petroleum hydrocarbons through rhizoremediation. This process involves the release of organic compounds from plant roots, which feed bacteria that break down pollutants.
A study by Binghamton University found that 8-10% of children can carry strep bacteria even after antibiotic treatment, despite no symptoms. Researchers hope to understand this phenomenon through genome analysis and throat microbiota studies.
A new study published in Science Advances found that bacteria and fungi from Earth can survive for at least a week in shaded nooks and crannies around the lunar south pole. The study's findings highlight the need to better understand microbial persistence in extreme lunar environments, which is crucial for future space missions.
Researchers have found that Prevotella melaninogenica can survive in the presence of oxygen, challenging a long-held assumption about its obligate anaerobic nature. The study also reveals new insights into the bacteria's ability to consume oxygen and deal with oxidative stress.
Researchers explore bacterial extracellular vesicles as a tool for cancer diagnosis and treatment, with potential for targeted delivery of therapeutic molecules and immunotherapy. However, consistency and safety remain major challenges in this emerging field.
Researchers discovered that bacteriophages play a critical role in distributing nutrients, promoting microbial diversity, and supporting gut health by releasing vitamin B12. The study found that phage infection is necessary for B12 release, and the nutrient specifically drives growth in dependent microbes.
A multidisciplinary study has identified a novel biofilm regulatory protein called Biofilm Architecture Regulator (BatR) and its role in Pseudomonas aeruginosa infections. The discovery may lead to new targets for anti-infective treatments, including those for people with cystic fibrosis.
A new liquid-based platform called 'floatony' can form and maintain complex three-dimensional microbial structures while preserving molecular diffusion, spatial structures, and cell mobility. This approach could offer new ways to study gut microbiota, biofilms, and other spatially organized microbial communities.
Researchers are studying foul-smelling substances to understand what attracts the New World screwworm, a flesh-eating parasite, to its favorite meal - open wounds. The goal is to develop better lures for trapping this serious threat to the livestock industry.
Researchers discovered that certain bacteria produce an enzyme to break down antibiotics, enabling their survival. This 'altruistic cell death' mechanism allows the bacteria population to thrive, making existing and future antibiotics less effective.
Researchers analyzed 49 journal articles on bacterial cellulose-derived carbon electrodes for supercapacitors, finding that preservation of the nanofiber network and mechanical properties are crucial for performance. The study highlights BCC's potential to outperform commercial activated carbon under comparable conditions.
A global study analyzed 16.5 million DNA sequences from 23 cities across five continents, revealing a clear distance-decay pattern for bacterial communities. The findings show that port size, wastewater discharge, geography, and maritime activity closely associate with the structure of bacterial communities worldwide.
A modular reporter phage platform has been developed to rapidly detect multiple Klebsiella pneumoniae capsule types. The platform uses a NanoLuc luciferase reporter gene and demonstrates high sensitivity and specificity, with the ability to distinguish between live and dead bacteria.
Researchers found bacteria can forcefully eject cells from communities as a survival mechanism, utilizing self-generated hydrogels. This ability allows biofilms to disperse and colonize new areas, potentially aiding in the elimination of harmful bacterial communities without antibiotics.
A new study found that bacteria in contaminated brick kiln soils reorganize their communities, strengthen stress-response functions, and activate detoxification genes. This understanding can help design more effective microbial restoration strategies for industrial sites.
Researchers uncovered the genetic history of Acinetobacter baumannii, tracing its evolution over decades to identify key resistance traits and global spread. The study provides valuable insights for guiding policies on antibiotic use and combating this serious healthcare threat.
Researchers propose a voluntary labelling scheme using 'STABILISED' to indicate products with minimal risk of Listeria infection. The scheme aims to help consumers choose safe products and reduce the number of people falling ill with Listeria infections.
A unique regulatory protein called VadK has been identified as a key player in Mycobacterium tuberculosis survival. The enzyme acts as a molecular control switch, enabling the bacterium to access essential energy sources and cause disease.
Researchers found that over-the-counter probiotics contain only 36 unique species of bacteria, with most common species being forms of Lactobacillus. The analysis suggests a lack of consistency in the combination of species used to support gut health and vaginal health claims.
Researchers found Escherichia albertii bacteria in 77% of water samples and 56% of wild raccoons, suggesting a pathway for transmission from wildlife to humans. The study's findings emphasize the need for a 'One Health' approach to address zoonotic diseases.
Researchers identified five immunomodulatory proteins in Borrelia recurrentis that prevent activation of the human complement system, allowing the pathogen to survive in the human body. These Chi proteins also convert plasminogen into active plasmin, giving Borrelia recurrentis a significant advantage in spreading after infection.
Researchers found that daunorubicin effectively inhibits bacteriophage infection in bacteria, triggering mutual destruction and killing the bacterial cell. The discovery opens up new avenues for phage therapy development, especially against antibiotic-resistant infections.
Researchers have developed an approach to prevent transmission of E. coli K1 bacteria to newborns, reducing the risk of meningitis by up to 80%. The treatment involves an oral vaccination that weakens the bacteria, followed by a harmless probiotic bacterium that competes with the weakened pathogen for food.
Researchers at Institute of Science Tokyo genetically engineer cyanobacteria to produce sulfated polysaccharides, a sustainable route for manufacturing biomaterials. The study demonstrates the feasibility of engineering complex biosynthetic pathways in photosynthetic organisms.
Researchers have discovered how wall teichoic acids control bacterial growth, providing insights into the nature of Earth's earliest life forms. The study reveals that eliminating these acids rapidly arrests cell wall synthesis and activates enzymes that promote rod-shaped growth.
A Tulane University study found that long-term antiretroviral treatments did not fully restore key immune functions to protect and repair the gut lining in nonhuman primates with SIV. The researchers discovered that diet-derived compounds from vegetables like broccoli and cabbage may support immune activity involved in gut repair.
Osaka Metropolitan University researchers developed a light-driven method to rapidly collect microscopic targets, outperforming traditional techniques. The technique concentrates bacteria between 1000-10,000 times faster than existing approaches, paving the way for early disease detection and analysis of nanoparticles.
Researchers engineered an anaerobic bacterium to target periodontitis, reducing key pathogens and promoting tissue repair. The treatment lowered oxidative stress and restored the oral microbiome, offering a potential therapeutic solution for inflammatory diseases.
Researchers at NUS create Lytic Selection and Evolution (LySE) platform, harnessing modified bacteriophage to rapidly create and test genetic changes. After five cycles, plastic degradation improved by over 50%, demonstrating a faster and more controllable method for training bacteria to consume plastics.
A naturally occurring fatty acid called geranylgeranoic acid (GGA) has been discovered to disrupt the ability of MRSA bacteria to stick to human molecules and detect their environment, making it harder for them to cause disease. Researchers tested GGA in mice and found it prevented skin lesions and reduced infection severity.
Researchers found that antibiotics disrupt gut microbiota, suppressing protective immune system pathways and increasing severity of A. baumannii pneumonia. The study highlights the gut-lung connection as a potential therapeutic target for hospital-acquired lung infections.
Scientists have mapped the structure of Vibrio bacteria with unprecedented detail, revealing a new target for treatment. The findings could provide a solution to life-threatening infections linked to antibiotic resistance.
Researchers at DTU discover three types of lactic acid bacteria that can effectively produce plant-based yoghurt alternatives, inhibiting harmful bacteria and breaking down sugars. The bacteria also improve the product's texture and extend shelf life.
Researchers at Hiroshima University have developed a new approach to predicting harmful algal blooms by coupling three models and accounting for plankton species interactions. This improved forecasting can help prevent economic losses and protect fish stocks in countries like Chile, which has been hit hard by these blooms.
Researchers propose a new framework for understanding microbiome health, focusing on the system's ability to reorganize in response to changing conditions. This shift helps explain inconsistent results of microbiome-based treatments, highlighting the importance of functional dynamics over static composition.
A Phase I clinical trial of a human monoclonal antibody for Lyme disease demonstrates its safety, tolerability, and pharmacokinetics. The treatment, TNX-4800, provides lasting serum concentrations and has the potential to offer passive immunity against the disease.
A genetic strategy is introduced to break the trade-off between rice disease resistance and yield by utilizing a pathogen-inducible promoter. The approach enables broad-spectrum disease resistance without compromising plant growth and yield.
A review by an international team of researchers highlights that air monitoring is essential for global public health strategies, as airborne antibiotic resistance genes can spread silently between humans, animals, and the environment.
Research reveals that viruses can eavesdrop on each other using chemical signals, which may not always benefit the listener. This 'cross-talk' between species can lead to incorrect decision-making by the eavesdropper.
Researchers discovered 30 bacterial species that break down biodegradable plastic, revealing speed and factors influencing degradation. The study highlights the importance of understanding microbial communities and plastic chemistry in plastic biodegradation.
Research shows that bacteria harbor resistance genes may respond differently to antibiotics under non-standard conditions. This affects treatment efficacy and contributes to understanding antimicrobial resistance development and spread. Understanding these variations is crucial to combat global public health threats.
Researchers at King's College London discovered that certain genetic features of gut bacteria predict long-term survival after fecal transplants. These stable gene groups are linked to traits that help good bacteria compete and survive, and may be used as a source of future drugs.
Researchers have discovered that Porphyromonas gingivalis, a keystone pathogen driving gum disease, carries an internal genetic brake controlling its aggression. By locking this brake in place, future treatments could silence the pathogen while leaving beneficial bacteria untouched.
Researchers explore how METs convert organic waste into electricity, fuels, fertilizers, and usable water. Pilot deployments demonstrate its potential to reclaim energy from 359 billion cubic meters of wastewater annually.
Emerging microbially-powered technologies can convert up to 35% of wastewater's chemical energy into electricity and extract valuable nutrients. This approach could power agriculture, global sanitation and its own treatment, while reducing pollution and overcoming regulatory obstacles.
A team of CDI scientists has identified the genetic basis of Acinetobacter baumannii's resistance to Cefiderocol, a last-line antibiotic. The study provides insights into the evolution of resistance and highlights the need for integrated surveillance strategies to prevent further resistance.