Drugs with the potential to change the course of Alzheimer’s disease are expected to be approved by mid-year in the UK. Healthcare services may need to change to ensure that all patients have equitable access to these new modifying anti-amyloid therapies, according to research led by Queen Mary University of London and University College London (UCL).

Alzheimer's disease is the most common cause of dementia. Of the 944,000 people living with dementia in the UK, 60-80% have Alzheimer's.

A bacterial enzyme called histidine kinase is a promising target for new classes of antibiotics. However, it has been difficult to develop drugs that target this enzyme, because it is a "hydrophobic" protein that loses its structure once removed from its normal location in the cell membrane.

Now, an MIT-led team has found a way to make the enzyme water-soluble, which could make it possible to rapidly screen potential drugs that might interfere with its functions.

Researchers from Nagoya University Graduate School of Medicine in Japan have successfully treated the skin diseases epidermolytic ichthyosis (EI) and ichthyosis with confetti (IWC) by transplanting genetically healthy skin to inflamed areas. Transplanting healthy skin to inflamed areas has been used as a treatment option for severe burn injuries. They applied this technique from a common disease to rare diseases.

Diabetes rates continue to rise, with 11.7 million Canadians living with diabetes or pre-diabetes. At UBC, scientists have created a pain-free drug delivery method to help people with diabetes manage the disease and maintain their health more easily.

Researchers at the Li Lab have developed oral insulin drops that when placed under the tongue are quickly and efficiently absorbed by the body, potentially replacing the need for insulin injections.

Blocking a protein known as CDK7 could prevent heart damage associated with a commonly used cancer chemotherapy medication, according to a study led by scientists at Washington State University. Importantly, the researchers also found that inhibiting CDK7 could help enhance the medication's cancer-killing capability.

Based on an animal model, the study findings could provide a foundation for future treatment strategies to reduce chemotherapy-related heart toxicity and increase treatment effectiveness.

In an era marked by rapid technological advancement in biomedical engineering, a groundbreaking development is set to revolutionize our approach to drug testing and disease modeling. Researchers from Shanghai University and the University of California Los Angeles have made significant strides in the field of in vitro vascularized organ-on-a-chip systems, offering a promising alternative to traditional methods that rely heavily on animal testing and simplistic two-dimensional cell cultures.

A novel immunotherapy approach developed by Ludwig Cancer Research scientists employs a two-pronged attack against solid tumors to boost the immune system’s ability to target and eliminate cancer cells.​​​​​​

The research focuses on an immunotherapy called adoptive cell transfer (ACT), which involves extracting T cells from a patient, enhancing their ability to fight cancer, expanding them in culture and reinfusing them into the patient's body.