Nano-sized traps enable better study of proteins
Researchers have developed a new method to study protein clumps that occur in many difficult-to-treat diseases.
List view / Grid view
Researchers have developed a new method to study protein clumps that occur in many difficult-to-treat diseases.
Researchers have developed organoids with naturally occurring early-stage immune cells, which could lead to effective personalised treatment.
Eliminating AT1-like cells in experimental models has shown potential to improve KRAS inhibitor treatment for lung adenocarcinoma.
Changing blood stem cells into retinal ganglion cells that can migrate to the eye’s retina offers hope for cell replacement therapy.
Crosslinking damage to single stranded RNA, caused by aldehydes, is repaired by newly discovered mechanism involving ribosomes.
A certain macrophage phenotype is more effective than another phenotype commonly used in cell therapy for infiltrating tumours.
iPS-cell-derived microglia in brain organoids have enabled scientists to understand early brain development and microglia-associated disease.
Advancements in enzyme-activated near-infrared fluorescent probes hold promise for evaluating responses to enzyme-targeting therapies.
The partial remission phase of type 1 diabetes, in which residual β-cells recover insulin production, offers new hope for therapeutic action.
Findings from using a 3D hydrogel to study how cancer cells physically tear the basement membrane offers promise for targeted treatment.
Using the nicotinamide mononucleotide molecule led to proliferation of non-senescent macrophages and lessened immunosuppressive factors.
New understanding of “Christchurch mutation” in the APOE gene may lead to novel Alzheimer's disease treatments.
Researchers have developed an AI based model that is 80 percent accurate in predicting the therapy outcome of high-grade ovarian cancer.
Researchers find that polymerase epsilon exonuclease is an essential target for cancer diagnosis and treatments that rely on DNA damage.
New research identifies how trabeculae transform into ventricles, which could positively impact heart disease treatments.