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Building your immunity: Tissue-resident immune cells defend human lungs from viral, bacterial, and fungal infections

A recent study found that human lung tissue contains a vast reservoir of tissue-resident memory T cells (T RM cells) capable of targeting a range of viruses, bacteria, and fungi. These cells reside only in the lungs and can live for years, providing a vital line of defense against severe respiratory infections.

SourceLa Jolla Institute for Immunology·TypeExperimental study·DateJul 28, 2026

Experts call on WHO to revisit its approach to airborne risk in light of hantavirus outbreak

Experts are calling on the World Health Organization (WHO) to adopt a more precautionary approach in responding to emerging respiratory viruses. The recent hantavirus outbreak, which has resulted in three deaths and several cases, highlights the need for improved ventilation, respirator use, and portable HEPA filtration.

SourceUniversity of Maryland·JournalBMJ·TypeCommentary/editorial·DateMay 13, 2026

PolyU research reveals hidden health risks from urban airborne microbes: low concentration of bacterial toxins may trigger nearly 20% of inflammatory responses, while drug-resistant fungi may spread with the wind

A PolyU research team discovered that low concentrations of bacterial toxins in urban air can trigger nearly 20% of inflammatory responses, while drug-resistant fungi may spread through everyday breathing or skin contact. The study highlights the need to identify and control these highly toxic trace components to effectively reduce hea...

SourceThe Hong Kong Polytechnic University·JournalEnvironmental Science & Technology·DateMay 6, 2026

Airplane and hospital air is cleaner than you might think

A Northwestern University study found that airplane and hospital air mostly contain harmless microbes from human skin, with some potentially pathogenic species in extremely low abundance. The study used worn face masks as a passive tool to monitor indoor air, revealing the invisible world of microbes floating in our shared air.

SourceNorthwestern University·JournalMicrobiome·TypeExperimental study·DateDec 3, 2025

Spotlight on technology to protect older Australians from respiratory infections

A new study published in JAMA Internal Medicine found that commercially available UV-C light appliances reduced rates of viral respiratory infections by more than 12% in aged care facilities. The technology is easily installed and cost-effective, making it a transformative solution for protecting residents from emerging pathogens.

SourceFlinders University·JournalJAMA Internal Medicine·TypeRandomized controlled/clinical trial·DateJul 28, 2025

Study evaluates airborne transmission risk of mpox compared to COVID-19 and smallpox

A collaborative research effort has provided new insights into the likelihood of mpox spreading by airborne respiratory particles, comparing it to SARS-CoV-2 and smallpox. The study suggests that future viral evolution could alter this dynamic, underscoring the need for continued surveillance.

SourceAgency for Science, Technology and Research (A*STAR), Singapore·JournalThe Lancet Microbe·TypeComputational simulation/modeling·DateMar 24, 2025

An aerosol test for airborne bird flu

Researchers developed a prototype sensor that detects H5N1 viruses in air samples, detecting the virus at levels below an infectious dose. The sensor produced results within 5 minutes and showed over 90% accuracy compared to traditional methods, offering promise for noninvasive air monitoring.

SourceAmerican Chemical Society·JournalACS Sensors·DateMar 7, 2025

From Spanish flu to today: how immune cells keep up with a changing virus

Researchers discovered immune cells that can recognise influenza (flu) viruses even as they mutate, providing a potential solution to the annual updates of flu vaccines. The study found that certain T cells, which play a critical role in fighting infections, can detect multiple flu strains, even those that have evolved over a century.

SourceUniversity of Melbourne·JournalScience Immunology·TypeExperimental study·DateFeb 10, 2025

Eradivir’s EV25 therapeutic proven to reduce advanced-stage influenza viral loads faster, more thoroughly in preclinical studies than current therapies

EV25, a bispecific small molecule developed by Eradivir, acts faster than the current standard of care, eliminating detectable virus within 24 hours. It also recruits naturally occurring antibodies to fight the virus, reducing viral loads and protecting against lung damage.

SourcePurdue University·JournalProceedings of the National Academy of Sciences·DateNov 19, 2024

Exposing dengue’s invasion strategies

Researchers at Stowers Institute for Medical Research have identified the dengue virus genome's use of less efficient codons in its host's machinery to replicate and spread. This discovery has implications for developing novel antiviral treatments and vaccines, as well as understanding the relationship between viruses and their hosts.

SourceStowers Institute for Medical Research·JournalMolecular Systems Biology·TypeExperimental study·DateJul 22, 2024

Acids help against airborne viruses

A study found that acidification of aerosols post-exhalation significantly impacts viral load. Influenza A viruses are inactivated within minutes, while SARS-CoV-2 requires days at typical indoor pH levels.

SourceETH Zurich·JournalEnvironmental Science & Technology·TypeExperimental study·DateDec 21, 2022

A new air purification strategy might reduce the risk of COVID-19 transmission in classrooms and other indoor spaces by as much as tenfold

A new study by USC researchers demonstrates that high-efficiency air filtration systems can significantly improve indoor air quality. Operating such systems with portable HEPA air purifiers can maximize the removal of tiny airborne particles, reducing COVID-19 transmission risk by up to tenfold.

SourceUniversity of Southern California·JournalInternational Journal of Environmental Research and Public Health·TypeExperimental study·DateNov 9, 2022

Studying thermophoresis in space

A multidisciplinary team of Lehigh University researchers will conduct experiments on thermophoresis in complex fluids for bioseparations at the International Space Station. The team hopes to understand how temperature gradients affect particles and improve virus separation techniques with potential societal impact.