Tag: Microbiology


  • IU Bloomington Lab Uncovers Key to Combating Antibiotic Resistance

    IU Bloomington Lab Uncovers Key to Combating Antibiotic Resistance

    Breaking the Global Threat: A New Insight from IU Bloomington Antimicrobial resistance—where bacteria and fungi develop defenses against drugs designed to kill them—poses a mounting risk to global public health. The Centers for Disease Control and Prevention (CDC) has repeatedly warned that resistant infections could undermine modern medicine, making routine surgeries and cancer treatments far…

  • IU Bloomington Lab Discovers Key to Antibiotic Resistance

    IU Bloomington Lab Discovers Key to Antibiotic Resistance

    Groundbreaking Finding from the Gerdt Lab at Indiana University Antimicrobial resistance remains one of the most pressing public health challenges of our time. Bacteria and fungi that outsmart antibiotics threaten the effectiveness of treatments for common infections and complicate routine medical procedures. A recent advance from Indiana University Bloomington’s Gerdt Laboratory marks a notable turn…

  • Next-Generation Space Antimicrobial: Assessing Microbial Activity and Reduction on the ISS

    Next-Generation Space Antimicrobial: Assessing Microbial Activity and Reduction on the ISS

    Introduction: The Need for Advanced Antimicrobials in Space Microbial contamination presents a dual threat in space: it can compromise crew health and undermine critical mission operations. In the microgravity environment of the International Space Station (ISS), traditional cleaning methods are time-consuming and may not fully address the unique microbial dynamics at play. Recent research is…

  • A Next Generation Space Antimicrobial: Microbial Reduction on the ISS

    A Next Generation Space Antimicrobial: Microbial Reduction on the ISS

    Introduction: The Challenge of Microbial Life in Space Microbial contamination in spacecraft poses a unique risk to crew health and mission success. In the confined, closed-loop ecosystem of the International Space Station (ISS), microbes can survive longer, form biofilms, and potentially impact life-support systems. Traditional cleaning protocols rely on rigorous, time-consuming routines that demand significant…

  • Emergence of Aerobic Bacteria: Tracing the Oxygen Revolution in Earth’s History

    Emergence of Aerobic Bacteria: Tracing the Oxygen Revolution in Earth’s History

    Introduction: Why Aerobic Bacteria Matter The rise of aerobic bacteria marks one of the most transformative episodes in Earth’s history. While many early microbes lived in oxygen-free environments, the transition to environments where oxygen could be used for energy production unlocked new metabolic possibilities. Understanding when and how aerobic bacteria emerged helps explain the tempo…

  • How Flour Shape the Microbes Behind Sourdough’s Sourness

    How Flour Shape the Microbes Behind Sourdough’s Sourness

    Introduction: The microbial mystery behind sourdough flavor Sourdough is often praised for its complex flavor, tang, and texture. But what actually sets one loaf apart from another can begin long before the dough hits the oven. A recent study published in Microbiology Spectrum, led by researchers at North Carolina State University in Raleigh, investigates how…

  • The Hidden Microbes That Steer Sourdough’s Sourness: How Flour Choice Shapes Flavor

    The Hidden Microbes That Steer Sourdough’s Sourness: How Flour Choice Shapes Flavor

    Why Flour Choice Matters for Sourdough Flavor Sourdough is loved for its tangy complexity, bubbly texture, and comforting aroma. While bakers often credit patience and hydration, recent research shines a brighter light on the invisible architects of flavor: the microbes living in the starter. A study published in Microbiology Spectrum by Heil and colleagues at…

  • How Space Experiments Reveal Surprising Phage Evolution in Microgravity

    How Space Experiments Reveal Surprising Phage Evolution in Microgravity

    Introduction: Space as a New Playground for Viral Evolution Phages, the viruses that infect bacteria, have long been studied as drivers of microbial evolution on Earth. When scientists took these tiny adversaries into space, they expected familiar dynamics—yet the microgravity environment and cosmic radiation unlocked evolutionary pathways that were previously unseen. The result is a…

  • Detecting Finegoldia magna in Cyst Secretions: Insights for Non-Lutating F Infections

    Detecting Finegoldia magna in Cyst Secretions: Insights for Non-Lutating F Infections

    Overview: Finegoldia magna in Clinical Infections Finegoldia magna, historically described as Peptostreptococcus magnus, is a predominant Gram-positive anaerobic coccus frequently recovered from human clinical specimens. It commonly participates in mixed infections and has a notable association with skin and soft tissue infections, surgical wounds, and various purulent processes. While its role has been recognized for…

  • ISS Viruses in Microgravity: How Space Affects Pathogens

    ISS Viruses in Microgravity: How Space Affects Pathogens

    Understanding Microgravity and Microbes on the ISS The International Space Station (ISS) functions as a closed, living laboratory where humans and microbes live in close quarters. In this unique environment, the normal rules of biology can shift. Microgravity, radiation exposure, confined air recycling, and altered fluid dynamics all interact with viral particles and microbial communities…