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In this regular feature on Breakthroughs, we highlight some of the most interesting reads in global health research from the past week.

November 24, 2025 by Hannah Sachs-Wetstone

At the recent Union World Conference on Lung Health, TB Alliance presented the results of a Phase 2 clinical trial showing that the novel antibiotic candidate sorfequiline has the potential to improve tuberculosis (TB) treatment when combined with pretomanid and linezolid in people with drug-sensitive TB. The regimen was more effective than the current standard of care, and sorfequiline also demonstrated greater activity than bedaquiline, a key component of the BPaL regimen, a previous breakthrough that drastically reduced treatment time for most drug-resistant TB. This new treatment could shorten TB therapy even further. TB Alliance is working with partners ahead of the launch of a Phase 3 trial next year. 

Researchers at the University of California San Diego and partners have developed a new method to combat antibiotic-resistant bacteria, which could pave the way for developing alternatives to traditional antibiotics for treating a wide range of deadly infections, as the global threat of antimicrobial resistance continues to grow. The researchers used bacteriophages (or phages), which are viruses that infect and kill bacteria. Phages have been used to treat bacterial infections for more than 100 years but are usually limited in the bacterial strains they can successfully target. Researchers overcame this by allowing the pages to evolve alongside bacteria in a controlled laboratory setting for 30 days, enabling the phages to adapt their bacterial defenses, becoming more effective at killing a wide variety of bacterial strains, including drug-resistant ones, and better at suppressing bacterial growth for extended periods. 

Researchers at Indiana University have developed a molecular test that can simultaneously detect three dangerous fungi much faster than traditional methods, helping patients receive accurate, timely treatment against this growing global challenge. The test works by targeting genetic regions unique to each fungus, and it was much faster and more accurate than standard methods, a key advance as fungal infections are often mistaken for other respiratory illnesses. While the test still needs to be clinically validated in further studies, the research team believe it could eventually fill a major gap in fungal diagnostics. 

About the author

Hannah Sachs-WetstoneGHTC

Hannah supports advocacy and communications activities and member coordination for GHTC. Her role includes developing and disseminating digital communications, tracking member and policy news, engaging coalition members, and organizing meetings and events.Prior to joining GHTC,...read more about this author