Articles tagged with Bacterial Proteins
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Researchers have identified and detailed the structure of Mcf1, a bacterial toxin that kills insects by disrupting essential proteins in their cells. The discovery has implications for developing new organic pest control agents and may also shed light on human diseases.
Research reveals that a small subset of bacterial cells produces deadly toxins while sacrificing themselves for the benefit of their comrades. The bacteria use a temperature-sensitive genetic switch to synchronize toxin production with cell enlargement, ensuring an efficient strategy for infection.
A team of researchers identified a CTP-dependent transcription factor controlling Shigella virulence gene expression, providing new avenues for combating this and related bacterial pathogens. The discovery sheds light on the molecular mechanisms underlying bacterial pathogenesis.
Scientists engineered yeast that can harness energy from light, growing 2% faster in the light than in the dark. This discovery provides key evolutionary insights into how rhodopsins spread across lineages and has potential applications for biofuel production and studying cellular aging.
Researchers have discovered how the TamAB system helps Salmonella survive under harsh conditions inside macrophages. The study found that TamAB creates favorable conditions for the Bam complex to work, but the exact mechanism is unclear. Understanding this process could help in developing treatments for Salmonella infections.
Researchers from Binghamton University are unraveling the workings of Group B Strep (GBS) infections, which could someday lead to a vaccine. They have identified a novel protein that could serve as a vaccine candidate to fight this bacterium, impacting women's reproductive health and neonatal outcomes.
Bacteria use a molecular freight elevator to transport essential substances through their cell membrane. The transporter and its soluble substrate binding protein adapt precisely to each other during the transportation process.
Researchers have discovered that natural antimicrobial predatory bacteria, Bdellovibrio bacterivorous, produce fibre-like proteins on their surface to ensnare prey. This breakthrough enables scientists to use these predators to target and kill problematic bacteria in healthcare, food spoilage, and the environment.
Researchers found a single gene involved in iron-sulphur clusters crucial for TB bacterium's persistence. The IscS gene helps regulate the SUF operon, preventing hypervirulence and allowing the bacteria to survive harsh lung conditions.
Researchers discovered that short- and long-range weapons perform differently depending on the competition scenario, with long-range toxins becoming effective at high density and low initial numbers of competing bacteria. This study could help engineer beneficial microorganisms to out-compete pathogenic strains.
Researchers discover a central chromosomal domain that enables dormant spores to revive and activate essential genes, shedding light on bacterial survival in harsh conditions. The study's findings have broader implications for sustaining long-term transcriptional programs across diverse organisms.
Researchers found that bacteria with excess Hsp33 survive better against plasma treatment due to its protective properties. The heat shock protein prevents clumping of unfolded proteins, making cells more susceptible to inactivation.
Researchers use molecular dating approach to estimate moment of LUCA's split into bacteria and archaea, as well as eukaryotes' emergence. The study reveals archaea are younger than previously thought, with some potentially living hidden on Earth.
Researchers developed an innovative bioengineering approach using genetically modified bacteria to incorporate protein cages around protein crystals. This method efficiently produces highly customized protein complexes for specialized applications. The resulting crystals have a core-shell structure with a cubic PhC core covered in five...
A research team led by Konrad Meister discovered that small proteins are involved in efficient ice formation, outperforming larger proteins found in other organisms
Researchers at UTSA have discovered a novel strategy to inhibit the spread and infection of Vibrio cholerae, the bacteria responsible for cholera. They identified a peptide-binding domain that can disrupt the virulence of V. cholerae, preventing intestinal colonization and biofilm formation.
A new antibiotic approach has been developed to target Lyme disease, leveraging a molecular warhead that annihilates the bacterium using light. The technique shows promise not only against bacteria but also fungi and viruses.
Researchers used AI to identify 2 promising antigens as candidates for a gonorrhea vaccine, which accurately predicted reduction of bacterial populations. The antigens were tested in lab and animal models, showing efficacy in killing bacteria and decreasing bacterial burden.
Research found that nematodes can sense danger by smell, triggering a neural circuit that induces a response in other tissues, leading to a longer lifespan and less protein aggregation. The study suggests that manipulating perceptions of chemical substances could be a route to intervention in neurodegenerative diseases.
Researchers at The University of Toledo discovered that engineered Lactobacillus paracasei can lower blood pressure in female rats by introducing human ACE2. The study provides a paradigm shift in harnessing the body's microbiome to regulate blood pressure and offers new hope for treating chronic conditions.
Researchers have discovered a novel enzyme family related to bacterial pathogenicity in Gram-negative bacteria. The study revealed that enzymes involved in OPG synthesis and regulation play crucial roles in bacterial infection capability.
A recent study found that apoptotic factors in eukaryotes have a bacterial or mitochondrial origin, suggesting conservation over 1.8 billion years. The researchers proposed an alternative scenario where early protoeukaryotes domesticated bacteria to produce toxins, which eventually evolved into apoptotic factors.
A University of Massachusetts Amherst team demonstrates a protein antigen from a childhood vaccine can be delivered into malignant tumor cells to refocus the immune system against cancer. The bacteria-based intracellular delivering system shows promise in treating pancreatic, liver, and metastatic breast tumors.
Researchers developed a promising strategy to reduce adverse reactions to nanoparticles by using complement inhibitors. The study showed that regulators being studied effectively inhibited complement activation by nanoparticles in human serum in vitro and animal models.
Scientists have identified a bacterial strain that can break down the toxic tomatine in tomato roots, providing new understanding of how soil microbes interact with plants. This discovery could lead to the development of new bioactive compounds for human applications.
University of Copenhagen scientists have successfully produced plant-based cheeses with firm texture and improved aroma profile using natural fermentation processes. The study explores the potential of fermentation to develop flavor and texture in non-dairy cheese, paving the way for a more sustainable dairy-free alternative.
Researchers have developed a synthetic peptide that could help reduce vascular problems associated with acute respiratory distress syndrome in COVID-19. The peptide, called TIP, works by binding to a subunit of the epithelial sodium channel, which helps maintain barrier function and prevent damage from viral proteins.
Researchers use Listeria bacteria to break open cell organelles and study their function in relation to shape. They found that function does not always follow form, with cells recognizing and increasing efforts to remove misshapen organelles.
Scientists have identified a previously unknown class of bacterial proteins that suppress the growth of methane clathrates as effectively as commercial chemicals, but are non-toxic and scalable. This discovery has significant implications for reducing greenhouse gas emissions and increasing the safety of transporting natural gas.
A team of scientists has developed a method to detect active Cullin-RING ligases (CRLs), which are responsible for destroying unwanted proteins in cells. The new technology, called a molecular radar, reveals which CRLs are deployed to address cellular stresses and perform the actions of some anti-cancer drugs.
Researchers at Tokyo University of Science have uncovered a novel mechanism for sorting endocytic cargo, revealing a specific compartment within the trans-Golgi network that determines the fate of cargo. This discovery has implications for understanding basic life processes and diseases caused by disruptions in endocytosis.
A study at Nagoya University reveals how FliG molecule controls bacterial motion, enabling faster and more efficient nanomachines. The findings could lead to compact motors with high energy conversion efficiency and instant direction changes.
A new method, M3-seq, has been developed to study the gene expression patterns of individual bacteria with unprecedented detail. This approach enables researchers to identify rare bacterial populations and profile phage infection, shedding light on complex biological phenomena.
Researchers found that AvrE/DspE family proteins, used by plant pathogens to cause disease, fold into a straw-like structure with a water channel. This discovery could lead to the development of new methods to disarm these proteins and prevent crop damage.
A recent study found elevated TonEBP expression in patients with lupus nephritis, correlating with inflammatory cytokines and kidney damage. Suppressing TonEBP was shown to halt lupus progression and mitigate kidney damage in animal models.
Researchers have identified essential genes for the growth of Patescibacteria, a group of tiny microbes that live on larger bacteria. The study provides insights into their unique biology and potential biotechnology applications.
Researchers at St. Jude Children's Research Hospital discovered a subset of immune cells that slows Alzheimer's disease progression by interacting with microglia. The cells, called CD8+ T cells, use a molecular handshake to signal to the microglia to stop causing uncontrolled inflammation, which in turn slows plaque growth and symptoms.
Researchers at UNIST developed a microfluidic system to process blood into artificial tissue scaffolds for vascular regeneration. Autologous blood-based implants demonstrated superior wound closure rates, increased epidermis thickness, and enhanced collagen deposition in rodent skin wounds.
A team at Tohoku University has used cryo-electron microscopy to study a crucial protein involved in zinc ion transport. The study reveals new insights into the mechanisms governing zinc transport, which play a vital role in enzyme catalysis, DNA binding, and gene regulation.
A new MU study highlights the protective role of innate lymphoid cells and interferons in reducing neurological effects of Brucellosis. The findings could lead to improved diagnostics and therapies for neurobrucellosis, a condition that can cause long-term neurological complications.
Researchers discovered a new mechanism underlying the heat shock response in Escherichia coli. IbpA suppresses σ32 translation, regulating Hsp expression and aiding cell protection under high temperatures. This finding sheds light on bacterial adaptation to harsh environments.
Researchers from the University of Kansas have created a powerful dataset to facilitate drug development against gram-negative bacteria. The dataset reveals over 270,000 previously unidentified outer-membrane proteins with potential as vaccine targets.
Scientists have discovered an additional source of genetic mutations that cause rare conditions like Huntington's disease. Expanded CAG repeat RNA can form aggregates that reduce global protein synthesis and lead to neurotoxicity.
Researchers found stable antibodies in 800-year-old medieval human teeth that can still recognize viral proteins, allowing them to study the history of infectious human diseases. This discovery expands the field of palaeoproteomics and may enable experts to analyze how human antibody responses developed over time.
A study by Florida Atlantic University found that nearly all wristbands (95%) are contaminated with harmful bacteria, including E. coli and staphylococcus. The study suggests using metal types like gold and silver, which had little to no bacteria, and recommends regular sanitizing of wristbands, especially after gym activities.
Researchers found that bacteria with electrically conductive protein threads can corrode iron anaerobically, producing magnetite that facilitates further corrosion. The discovery has significant implications for corrosion protection and suggests taking material properties into consideration.
Researchers used cryoelectron microscopy to visualize how ribosome-modifying enzymes squeeze RNA nucleotides and alter them, leading to drug resistance. The discovery may lead to the design of new antibiotic therapies targeting these enzymes.
A new study reveals that bacterial resistance to albicidin is caused by an increase in the number of copies of a specific gene, leading to up to a 1,000-fold increase in resistance. This discovery highlights the growing threat of antibiotic resistance and underscores the need for effective strategies to combat it.
A recent study discovered the complex circadian clock mechanisms in soil bacteria Bacillus subtilis, regulating multiple genes and behaviors. The findings have significant implications for industrial applications, human health, and plant science.
Researchers find that Acinetobacter baumannii can achieve significant functional modifications in protein complexes over short evolutionary time spans, particularly in hair-like cell appendages. This diversity may affect the pathogen's interaction with its environment and inform personalized therapies.
A protein found in bacteria activates its enzymatic activity by up to 10,000 times when exposed to blue light, acting like an on-off switch. This discovery could lead to enhanced and optimized optogenetic tools and medical treatments.
Researchers aim to investigate the link between gut microbes and Type 1 diabetes. Emrah Altindis's lab seeks to understand how a protein found in certain bacteria may trigger the onset of T1D.
A team of researchers at the University of Oklahoma has made a groundbreaking discovery in overcoming antimicrobial resistance by developing a new class of molecules that inhibit efflux pumps. These inhibitors work as 'molecular wedges' targeting the area between bacterial cell membranes, increasing the effectiveness of antibiotics.
Researchers at the University of Copenhagen have discovered how a bacterium called Vibrio alginolyticus moves using sodium ions, which could lead to new targets for antibiotics. The study provides insights into the flagellum's movement and may help develop novel antibiotics to combat antibiotic resistance.
Researchers at Massachusetts General Hospital discovered a critical protein, NLRP11, that alerts the body to bacterial infections and initiates an effective immune response. This finding may lead to improved 'humanized' mouse models of infections and diseases involving the immune system.
A new study found that individuals vaccinated with the newer pertussis vaccine show similar immune responses to antigens present and absent from the vaccine, suggesting that asymptomatic infections drive T cell response. This could lead to the spread of the bacteria to vulnerable populations.
Researchers detail structure and mechanism of short Argonaute protein, sparking hopes for therapeutic applications. The discovery may lead to engineering proteins that can detect threats or trigger cell death in healthy cells.
Scientists at Tokyo Institute of Technology have engineered protein crystals in bacteria to produce hybrid solid catalysts for artificial photosynthesis. These catalysts exhibit high activity and stability, with the potential to convert CO2 into formate upon exposure to light.
Bacteria can regulate nitrogen fixation through a protein called NifL, which changes shape in response to oxygen and energy levels. This discovery could lead to new ways to engineer bacteria and biofertilizers, improving crop yields in poor soils.
Researchers at MIT have developed a novel sensor that can detect immune molecule CXCL12, which plays a crucial role in several human diseases including cancer. The device uses receptor proteins found in cell membranes, making it a potential tool for early screening of hard-to-diagnose cancers.