Medicine/Health

New Study Reveals How Immune Cells Help Defend Against Candida Infections

New Study Reveals How Immune Cells Help Defend Against Candida Infections

27 October, 2025

New research shows that eosinophils, immune cells usually linked to allergies, also play a protective role against Candida infections by using the CD48 receptor to recognize the fungus and release proteins that stop its growth. This discovery is important because it reshapes how we understand the immune system and opens the door to new therapies that could strengthen natural defenses against life-threatening fungal infections, a growing challenge in hospitals worldwide.


 

New Way to Destroy a Cancer-Linked Molecule Revealed

New Way to Destroy a Cancer-Linked Molecule Revealed

22 October, 2025

Researchers have created a new type of drug molecule that can precisely destroy TERRA, an RNA molecule that helps certain cancer cells survive. Using advanced “RIBOTAC” technology, their compound finds TERRA inside cells and breaks it down without harming healthy molecules. This discovery could pave the way for a new generation of RNA-based cancer treatments, targeting the disease at its genetic roots rather than just its symptoms.


 

Viruses Hidden Within Fungi Could Be Secret Drivers of  Deadly Lung Infections

Viruses Hidden Within Fungi Could Be Secret Drivers of Deadly Lung Infections

21 August, 2025

Researchers have discovered that a virus living inside the fungus Aspergillus fumigatus significantly boosts the fungus’s ability to survive stress and cause severe infections in mammals. Removing the virus made the fungus weaker and less virulent, while antiviral treatments improved survival outcomes. This finding reveals a hidden factor driving the deadliness of fungal infections and opens the door to potential new treatments that target the virus rather than the fungus itself.


 

New Drug Combo Outperforms Tamiflu in Fighting Flu

New Drug Combo Outperforms Tamiflu in Fighting Flu

4 August, 2025

A surprising new drug combo including a compound found in chocolate has outperformed Tamiflu in fighting the flu, according to a study published in PNAS. The mix of Theobromine and Arainosine proved far more effective against a range of flu strains, including drug-resistant versions of bird and swine flu. By targeting a key viral weakness, this breakthrough could lead to stronger, longer-lasting treatments—not just for the flu, but potentially for other viruses as well.


 

Hebrew University Signs Research and Academic Exchange Agreement with Leading Japanese Dental Institute

Hebrew University Signs Research and Academic Exchange Agreement with Leading Japanese Dental Institute

31 July, 2025

The Hebrew University of Jerusalem is proud to announce a new international agreement with the Faculty of Dentistry at the Graduate School of Medical and Dental Sciences, Institute of Science, Tokyo. This agreement marks the beginning of a collaborative partnership focused on research, and the mutual exchange of students and academic staff.

The Tokyo institute is globally recognized for excellence. Its Faculty of Dentistry holds an impressive 4th place in QS 2025 Subject Rankings!

Powering Up T Cells: A New Path in Cancer Immunotherapy

Powering Up T Cells: A New Path in Cancer Immunotherapy

28 July, 2025

Researchers have discovered a way to make the immune system’s T cells significantly more effective at fighting cancer. By blocking a protein called Ant2, they were able to reprogram how these cells consume and generate energy—essentially rewiring their internal power supply. This shift makes T cells more active, resilient, and better at attacking tumors. The findings open the door to new treatments that could strengthen the body’s own immune response, offering a smarter, more targeted approach to cancer therapy.


 

Why Paracetamol Works: New Discovery Ends Longstanding Mystery

Why Paracetamol Works: New Discovery Ends Longstanding Mystery

9 June, 2025

A new study from Hebrew University reveals that paracetamol doesn’t just work in the brain—it also blocks pain at its source by acting on nerve endings in the body. The researchers found that its active metabolite, AM404, shuts down specific sodium channels in pain-sensing neurons, stopping pain signals before they reach the brain. This discovery not only reshapes our understanding of how one of the world’s most common painkillers works, but also opens the door to developing safer, more targeted pain treatments.