Upstream Bioprocessing In-Depth Focus 2019
This In-Depth Focus features articles highlighting the importance of effective data management strategies as well as the recent trends in upstream bioprocessing.
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This In-Depth Focus features articles highlighting the importance of effective data management strategies as well as the recent trends in upstream bioprocessing.
This article highlights five of the latest findings that could be used in the development or design of new therapies to treat Parkinson’s disease.
The process of Salmonella typhi to damage DNA has been revealed by researchers at the University of Sheffield which could inform treatments.
The novel method for imaging molecules in cells and tissue samples, called DNA microscopy, could improve knowledge of disease development.
Researchers have mapped a previously uncharted region of the human genome which could lead to tests for certain conditions in the future.
Using new technology researchers have shown that sick mitochondria pollute the cells they are supposed to be supplying with power.
A new study has shown that mutations in mitochondrial DNA induced by cell reprogramming may trigger an immune response.
It has been discovered that Polo-like kinase (PLK1) guards against severe DNA damage and could help target fast-growing cancer cells.
New discovery makes it possible to design new therapies to replace alpha-synuclein's function in people with Parkinson's disease.
The so-called 'longevity gene' has been included in animal models, in which it stopped atherosclerosis.
Researchers have used machine learning to discover that the two most widespread DNA structures cause genome mutations that lead to cancer.
Researchers have analysed the physical origin and biological consequences of DNA-RNA hybrids which could inform gene therapies.
Researchers have presented their new technology for accurately inserting genes into the genome without cutting DNA.
New research could lead to novel treatments for autoimmune disorders and sheds light on the causes of autoimmunity.
Many studies indicating that DNA nanostructures can enter cells more readily than simple DNA strands are 'flawed'.