Mount Sinai creates first manual for treating infection-associated chronic illness for clinicians
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Updates every hour. Last Updated: 10-Oct-2025 18:11 ET (10-Oct-2025 22:11 GMT/UTC)
Free resource aims to improve diagnosis and care for patients living with long COVID and other complex chronic illnesses
Key Findings:
AI-powered Aging Clock: The new proteomic clock predicts biological age with high accuracy (R²=0.84, MAE=2.68 years) and captures accelerated aging signatures in severe lung disease cases—patients with severe COVID-19 (and likely fibrosis) exhibited biological ages nearly three years older than healthy controls.
Distinct Molecular Signatures: Analysis with the ipf-P3GPT generative model revealed both shared and unique gene expression patterns between aging lungs and fibrotic disease, highlighting that IPF is not just accelerated aging but entails unique pathological processes.
Pathway-Level Insights: The study identified four key pathways (TGF-ß signaling, oxidative stress, inflammation, ECM remodeling) as central to both IPF and aging, but involved differently at the gene level.
Mucosal Vaccine Delivery Systems: The Future of Immunization (Part 1) is a new release from Bentham Science that delivers a comprehensive exploration of mucosal immunization strategies, offering fresh perspectives and advanced insights into the evolving landscape of vaccine delivery science.
Portland State University researchers have released the final findings in a three-year project examining the impacts of multiple drug policy shifts including Measure 110 which decriminalized drug possession in Oregon.
The final report finds little evidence that Measure 110 was responsible for rising crime or overdose deaths. Instead, researchers found that trends in crime rates and overdose fatalities were primarily driven by the COVID-19 pandemic and the rise of fentanyl. The report also offers crucial insights for the implementation of the state’s new drug policy (HB 4002), emphasizing that policy change alone isn't enough — successful deflection to treatment depends on robust resources and coordination.
Groundbreaking research led by a Swansea University academic has revealed a synthetic glycosystem — a sugar-coated polymer nanoparticle — that can block Covid-19 from infecting human cells, reducing infection rates by nearly 99%.
Researchers from the Translational Genomics Research Institute (TGen), part of City of Hope, and the Lundquist Institute for Biomedical Innovation at Harbor-UCLA Medical Center have identified a potential biomarker for long COVID.
If the findings of their study are confirmed by other research centers, the biomarker could be the first specific and quantifiable indicator for confirming long COVID. Currently, clinicians confer a diagnosis of long COVID based upon a collection of symptoms that patients develop after SARS-CoV-2 infection.
The first paper from a multi-year clinical research study has been published in The Lancet Infectious Diseases: Dynamics of Endemic Virus Re-emergence in Children in the USA Following the COVID-19 Pandemic (2022-2023): A Longitudinal Immunoepidemiologic Surveillance Study and demonstrates how the approach can improve modeling to better predict future outbreaks.
The paper shares findings from a multicenter clinical research study, one of many studies that are part of the recently launched PREMISE (Pandemic Response Repository through Microbial and Immune Surveillance and Epidemiology) program, led by Dr. Daniel Douek at the National Institutes of Health’s (NIH) Vaccine Research Center (VRC). Data collected during the first year of the PREMISE study, 2022-2023, shows for the first time how non-pharmaceutical interventions such as masking and distancing targeted towards SARS-CoV-2 during the pandemic also decreased circulation rates of and population immunity to common respiratory pathogens in children. The study provides new evidence-based insight into what was driving the large post-pandemic rebound in these diseases and enables more accurate predictions for the future.