Sepsis is a life-threatening illness. Your body's response to a bacterial infection usually causes it. Your immune system goes into overdrive, overwhelming normal processes in your blood. The result is that small blood clots form, blocking blood flow to vital organs. This can lead to organ failure. Babies, old people and those with weakened immune systems are most likely to get sepsis. But even healthy people can become deathly ill from it.
Patients are more susceptible to fungal infections because the immune system in the gut is disrupted when patients are given antibiotics in the hospital.
Researchers from Jacobs School of Engineering and the University of California San Diego School of Medicine collaborated with colleagues from Baylor College of Medicine to decode the genetic diversity of Clostridioides difficile, an especially dangerous pathogen in healthcare settings, using a systems biology technique.
When treating patients with acute infections, healthcare professionals must be able to quickly and properly determine which antibiotics are most effective in combating the disease.
In the current study, scientists at Baylor College of Medicine identified that the cells of humans and animals that recovered from tuberculosis had prematurely aged up to 12 to 14 years.
A new study led by researchers at University of Utah Health details a novel mechanism that infectious bacteria use to quickly adjust to environmental stress. The discovery could help explain why certain types of common infections-;such as urinary tract and bloodstream infections like sepsis- are hard to get rid of.
Sepsis is a high-mortality disease that arises when the body's immune reaction to pathogens causes multi-organ defects.
A total of 16 novel genetic variations linked to severe Covid-19 have been discovered, including ones that affect blood coagulation, immunological response, and inflammation severity.
A recent study proves that antibiotic use in the first week of birth is associated with a reduction in the number of healthy bacteria required to digest milk.
Methicillin-resistant Staphylococcus aureus (MRSA) is a bacterial infection that has become resistant to most of the antibiotics used to treat regular staph infections.
A one-time infusion of stem cells from bone marrow improves the survival of mice with sepsis, shows a study published today in eLife.
Researchers have discovered a gene that makes E. coli bacteria resistant to antibiotics, effectively leading to better treatment for people across the globe.
A study published by researchers at the University of Illinois Chicago describes a new method for analyzing pyroptosis -; the process of cell death that is usually caused by infections and results in excess inflammation in the body -; and shows that process, long thought to be irreversible once initiated, can in fact be halted and controlled.
Driving up the immune response at the site of a cancer tumor with nanotechnology may help enhance immunotherapy treatments in advanced stages of the disease, new research in mice suggests.
A recent study carried out by the University of East Anglia and Quadram Institute shows how immune cells utilize the body’s fat stores to combat infection.
Lipopolysaccharide (LPS), a bacterial component, is a toxin and its increased concentrations in the blood induce sepsis.
Scientists at the Massachusetts Institute of Technology and the Institut Pasteur in France have developed a technique for reconstructing whole genomes, including the human genome, on a personal computer.
COVID-19 patients have differing immune responses that lead to disease outcomes ranging from asymptomatic SARS-CoV-2 infection to death.
Time-restricted eating (TRE) is a dietary regimen in which eating is restricted to particular hours. It has received great attention in weight-loss circles.
Professor Frédéric Veyrier of the Institut national de la recherche scientifique (INRS) has received $711,450 from the Canadian Institutes of Health Research (CIHR) for a project on bacteria of the nasopharynx, including Neisseria.
Researchers from Critical Analytics for Manufacturing Personalized-Medicine (CAMP), an Interdisciplinary Research Group (IRG) at the Singapore-MIT Alliance for Research and Technology (SMART), MIT's research enterprise in Singapore, have developed a new label-free immune profiling assay that profiles the rapidly changing host immune response in case of infection, in a departure from existing methods that focus on detecting the pathogens themselves, which can often be at low levels within a host.