Mechanism that triggers dendritic elongation discovered
Short-chain fatty acids produced by intestinal bacteria initiate dendritic elongation, a mechanism that could be used as a drug target.
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Short-chain fatty acids produced by intestinal bacteria initiate dendritic elongation, a mechanism that could be used as a drug target.
Scientists have discovered the motor protein dynein commands movement of cancer cells in soft tissue models, offering new clinical targets.
Researchers have discovered ways to enhance NIR-PIT to ensure tumours are treated sufficiently and improve patient outcomes.
Researchers have found that reducing glycosylation on the T cell surface may offer new approaches to cancer immunotherapy.
Dr Fernando Garces, Director of Biotechnology and Innovation at BioMap, discusses the huge potential of AI to deliver successful cell and gene therapy products by optimised design of viral vectors.
Researchers have discovered a molecule that binds to a cancer cell protein, stopping growth of breast and ovarian tumours.
A new small molecule has great promise for the treatment of autoimmune diseases by inhibiting the proinflammatory signalling pathway.
Scientists found that CXCR4 protein expression outside of the uterus is important for pregnancy maintenance.
Researchers found surprising function of pulmonary ionocytes which may affect how cystic fibrosis drugs work.
An epitope on CD95 receptor causes tumour cells to self-destruct and may prolong benefits of CAR T-cell therapy for solid tumours.
Listen to this podcast where we dive into genetic engineering, its role and relationship with allogeneic immunotherapy.
In this interview, Anne Neville, Director at Microbiotica, elaborates on the significance of the Microbiotica Culture Collection (MCC) and Microbiotica Reference Genome Database (MRGD), which are fundamental to the development of live biotherapeutic medicines.
Scientists have developed ExoCaps, self-healing microcapsules that are more feasible than other cell-based technologies.
Lactate producing bacteria is responsible for rewiring metabolic signalling pathways, causing resistance to radiation therapy.
Extracellular vesicles loaded with mRNA encoding interferon-gamma offers promise for treating difficult tumours.