Faster drug discovery could hit ‘undruggable’ targets
A new technique has been developed which has the potential to harness bacteria to produce billions of different drug candidates to treat diseases like cancer.
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A new technique has been developed which has the potential to harness bacteria to produce billions of different drug candidates to treat diseases like cancer.
Modelling technique that simultaneously evaluates the effects of possible protein mutations on protein-protein interactions implicated in disease, could cut pre-drug screening time, says research.
The G-protein coupled receptor Frizzled, implicated in diseases like cancer, can be targeted with small molecules which could provide the basis for anti-cancer therapeutics, according to researchers.
A new study is the first to describe a novel pharmacological chaperone that is capable of preventing Alzheimer's disease in mice.
A study in mice has found that a compound modelled on a protein found in bananas safely protects against multiple strains of the influenza virus.
A study has shown that a combination of α-KLOTHO and TGF β receptor 2 (TGFβR2) recovers cartilage in rats with osteoarthritis and could be a new therapy for humans.
A new method of melting proteins has allowed researchers to identify new potential drug targets by revealing protein-drug interactions.
Researchers have discovered a new type of T-cell receptor that can kill most cancer types while leaving healthy cells unharmed.
A new study into why neurons in the gut die and how the immune system protects them could lead to better treatments for IBS that work by boosting polyamine production.
Researchers have screened thousands of existing drug molecules against cancer cell lines to discover almost 50 compounds that combat the condition.
New findings using CRISPR have shown that the IL-4 and IL-13 proteins can protect the body against inflammation from autoimmune diseases.
Studies have identified that the TPX2 protein recruits the molecular machinery required for the branching microtubule nucleation process, so could be a target for cancer therapies.
Research has identified that regions of the brain can regenerate via neural stem cells and the process of neurogenesis which could provide a new avenue for regenerative therapeutics.
A new study has demonstrated that the enzyme proprotein convert subtilisin/kexin 6 causes structural and functional remodelling in vascular disease, so could be a new therapeutic target.
Research into the role of non-coding DNA in cancer development and progression has identified 30 regions that may contribute to tumour growth, which could be therapeutic targets.