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LA BioMed researcher honored for contributions to medicine

Dr. Jack Edwards, a leading researcher at LA BioMed, has been recognized with the Rhoda Benham Award for his continuous outstanding contributions to medical mycology. His work focuses on understanding fungal diseases, aiming to develop new anti-fungal agents and immunotherapies to prevent life-threatening infections.

Reasons for eczema susceptibility uncovered

Researchers at Newcastle University have identified the key role of filaggrin in triggering eczema by creating a human model system that mimics the skin condition. This discovery provides new understanding of the mechanisms involved and suggests targets for future drug development.

SourceNewcastle University·JournalJournal of Allergy and Clinical Immunology·DateMay 4, 2017

Visualization of the behavior of sugar transport proteins

A team of researchers at Osaka University developed a method to visualize intracellular protein trafficking, specifically the glucose transporter type 4 (GLUT4), which is associated with type II diabetes. The study reveals that abnormalities in the N-glycan chain lead to transient translocation and rapid internalization of GLUT4.

SourceOsaka University·JournalNature Chemical Biology·DateNov 16, 2016

New research paves way for anti-cancer treatment

Researchers developed a new lab technique that may improve anti-cancer treatment success rates by predicting patient responses to modified drug-eluting beads. The method was tested in lab experiments and validated with in vivo data, enabling accurate predictions without risking patients.

SourceUniversity of Huddersfield·JournalEuropean Journal of Pharmaceutical Sciences·DateOct 28, 2016

Brain cell 'executioner' identified

Scientists at Johns Hopkins Medicine have identified a protein called macrophage migration inhibitory factor (MIF) as the final execution step in parthanatos, a form of programmed brain cell death. MIF's ability has been linked to stroke but also may be involved in other neurodegenerative diseases.

SourceJohns Hopkins Medicine·JournalScience·DateOct 6, 2016

Discovery of new Hepatitis C virus mechanism

Researchers at Osaka University identified a new drug target by inhibiting the SPP enzyme, reducing HCV particle production and improving pathological liver conditions. The discovery also revealed a protein quality control mechanism that could be useful for treating other diseases.

SourceOsaka University·JournalNature Communications·DateJul 27, 2016

Building a smart cardiac patch

Scientists at Harvard University have developed a 'bionic' cardiac patch that can monitor and respond to cardiac problems, potentially revolutionizing heart attack treatment. The patch, made of nanoscale electronic scaffolds, can detect arrhythmia and adjust its performance in real-time.

SourceHarvard University·JournalNature Nanotechnology·DateJun 27, 2016

Curbing malaria resistance with multiple therapies

By treating individuals with a combination of drugs having different mechanisms of action, the chances of a malaria parasite developing multiple genetic mutations needed to survive is substantially decreased. This approach prolongs therapy effectiveness and preserves first-line drugs for treating malaria.

SourcePLOS·JournalPLOS Medicine·DateMar 29, 2016

Determining the structures of nanocrystalline pharmaceuticals by electron diffraction

Researchers have developed a new method to determine the structures of nanocrystalline pharmaceuticals, reducing radiation damage and allowing for study at room temperature. The approach uses low-dose electron diffraction with a high-sensitivity detector, enabling the collection of high-quality data for direct crystallography methods.

SourceInternational Union of Crystallography·JournalActa Crystallographica Section A·DateFeb 26, 2016

The father effect

Scientists at McGill University have discovered that histones, previously underappreciated molecules, play a crucial role in transmitting environmental memories over several generations. This finding has the potential to profoundly change our understanding of inheritance and could lead to new avenues for disease prevention and treatment.

SourceMcGill University·JournalScience·DateOct 8, 2015

Stem cell-derived 'organoids' help predict neural toxicity

A team of scientists developed a new system using stem cells to model features of the developing human brain that could be targeted by toxic chemicals or drugs. The approach, described in PNAS, uses machine learning to build a predictive model from RNA sequencing data collected from neural tissue constructs exposed to different chemicals.

SourceMorgridge Institute for Research·JournalProceedings of the National Academy of Sciences·DateSep 21, 2015