Metabolon Launches Microbiome Research Solution Combining New Microbiome Panel, Metagenomics Sequencing, and Multiomics Bioinformatics Tools
A new method using glycan-coated magnetic nanoparticles (gMNPs) is poised to change the way we detect foodborne pathogens like Escherichia coli and Salmonella in complex food matrices such as melons, lettuce, and raw chicken. Unlike traditional methods that rely on expensive antibodies or lengthy enrichment processes, this innovation offers a rapid detection system that extracts and confirms pathogens through qPCR in less than four hours. The gMNPs bind efficiently to pathogens, even in the presence of natural microbiota, across a wide range of pH levels and food matrices. At just $0.50 per test and without the need for cold storage, this approach has the potential to significantly reduce the global burden of foodborne illnesses.
A new study examines the symbiotic relationship between mycorrhizal fungi in plant roots and bacterial communities in the soil.
A new study co-authored by an Iowa State University professor opens new avenues for combatting soybean cyst nematodes, the most damaging pest for U.S. soybean crops.
The University of Texas MD Anderson Cancer Center鈥檚 Research Highlights showcases the latest breakthroughs in cancer care, research and prevention. These advances are made possible through seamless collaboration between MD Anderson鈥檚 world-leading clinicians and scientists, bringing discoveries from the lab to the clinic and back.
Using advanced DNA sequence analysis, a research team led by NYU Tandon School of Engineering's Assistant Professor Elizabeth H茅naff has discovered that tiny organisms in Brooklyn's highly contaminated Gowanus Canal have developed a comprehensive collection of pollution-fighting genes.
Next-generation DNA sequencing (NGS) - the same technology which is powering the development of tailor-made medicines, cancer diagnostics, infectious disease tracking, and gene research - could become a prime target for hackers.
Beneficial bacteria could enhance chickens鈥� health and reduce infection risk
Imagine editing the bacteria in your gut the same way scientists edit DNA, targeted, precise, and powerful. That鈥檚 exactly what Dr. Carlotta Ronda, a Principal Investigator at the Innovative Genomics Institute at the University of California, Berkeley, is working on.
Review of 10 years of papers on best practices outlines ways to advance research on gut microbiome to support health, disease risk reduction, and wellness.
New research uncovers how bacteria in the nose may play a role in making the respiratory tract more vulnerable to COVID-19 infection
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An initial study published in ACS鈥� Journal of Agricultural and Food Chemistry shows how animals consuming particles from plastics made with plant starch instead of petroleum developed health problems such as liver damage and gut microbiome imbalances.
Inside the digestive tract lives a host of microorganisms known as the gut microbiome. Chris Gaulke, professor of pathobiology at the College of Veterinary Medicine, studies the gut microbiome and its role in human health.
The Society for Laboratory Automation and Screening (SLAS) is pleased to announce Vasumitra 鈥淰asu鈥� Rao, M.S., Ph.D. candidate in the Biomedical Engineering program at the University of Michigan (Ann Arbor, Michigan, USA), as the 2025 SLAS Graduate Education Fellowship Grant recipient.
A team of researchers has unveiled an innovative diagnostic tool that transforms an everyday toy into a high-tech bacterial detection device. The plasmonic fidget spinner (P-FS) integrates nanoplasmonic technology with surface-enhanced Raman spectroscopy (SERS) to provide ultra-fast and precise bacterial identification. By leveraging the spinning motion to enhance signal detection, the P-FS significantly improves sensitivity, making it a potential game-changer for point-of-care diagnostics, particularly in resource-limited settings. This breakthrough could drastically cut detection times from days to minutes, revolutionizing the fight against bacterial infections.
乇賵鬲卮爻鬲乇貙 賵賱丕賷丞 賲賷賳賷爻賵鬲丕 鈥� 廿賳賴 噩夭亍 賰亘賷乇 賲賳 丕賱噩爻賲 賷賯毓 賮賷 賲賳胤賯丞 毓賲賷賯丞 亘丿丕禺賱賰貙 亘毓賷丿賸丕 毓賳 丕賱兀賳馗丕乇 賵乇亘賲丕 亘毓賷丿賸丕 毓賳 賮賰乇賰貙 廿賳賴丕 賲賳胤賯丞 賵爻胤 丕賱亘胤賳. 賷乇賰夭 賲噩丕賱 胤亘賷 噩丿賷丿 賵爻乇賷毓 丕賱鬲胤賵乇 毓賱賶 氐丨丞 賲賳胤賯丞 賵爻胤 丕賱亘胤賳貙 亘賲丕 賮賷 匕賱賰 賰賷賮賷丞 鬲賲賰賾購賳 丕賱兀卮禺丕氐 賲賳 丿賲噩賴丕 賮賷 賳賲胤 丨賷丕丞 氐丨賷 賵賰賷賮賷丞 丕賱鬲毓丕賲賱 賲毓 丕賱賲卮賰賱丕鬲 丕賱胤亘賷丞 丕賱賲毓賯丿丞 丕賱鬲賷 鬲賳卮兀 丨丕賱 鬲毓乇囟賴丕 賱賱囟毓賮. 鬲卮乇丨 丕賱丿賰鬲賵乇丞 卮丕乇賱賵鬲 賴賵乇賳貙 噩乇賾賻丕丨丞 廿毓丕丿丞 鬲乇賲賷賲 噩丿丕乇 丕賱亘胤賳 賵丕賱鬲賲孬賷賱 丕賱睾匕丕卅賷 賮賷 賲丕賷賵 賰賱賷賳賰 胤亘賷毓丞 氐丨丞 賲賳胤賯丞 賵爻胤 丕賱亘胤賳 賵賰賷賮賷丞 丨賲丕賷鬲賴丕 賵毓賵丕賲賱 丕賱禺胤賵乇丞 賱賱賲卮賰賱丕鬲 丕賱鬲賷 賯丿 鬲爻鬲賱夭賲 丕賱噩乇丕丨丞.
IAFNS supports collaboration with academia, industry, government agencies and other labs to advance gut microbiome discoveries with an eye to new medical treatments.
A new study from Cedars-Sinai examined whether a specialized diet could improve symptoms of gastrointestinal disorders linked to an imbalance in gut microbiota.
Antibiotic-resistant bacteria can cause life-threatening infections that are almost impossible to treat with existing medication. As a result, common illnesses such as urinary tract infections or skin wounds are becoming a health risk. Empa researchers are therefore working on sensors that quickly identify resistant germs and recommend efficient treatment.
Exposure to antibiotics during infancy can stunt the growth of insulin-producing cells in the pancreas and may boost risk of diabetes later in life. The findings shine a light on the importance of the infant microbiome and could lead to new approaches for addressing metabolic diseases.
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