Nanobodies developed to image COVID-19 Spike protein
Researchers in the UK have selected nanobodies that bind with high affinity to the Spike protein on the COVID-19 coronavirus, enabling stabilisation for imaging.
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A drug target is anything within a living organism to which a drug is directed and/or binds, resulting in a change in its behaviour or function.
Researchers in the UK have selected nanobodies that bind with high affinity to the Spike protein on the COVID-19 coronavirus, enabling stabilisation for imaging.
A total of 21 COVID-19 research projects have been granted funding by the UK government, including vaccine and therapeutic development.
Researchers comparing the effects of SARS-CoV-2, SARS-CoV and MERS-CoV in cynomolgus macaques suggest they could be an effective animal model for testing COVID-19 therapeutics.
High-throughput screening of thousands of compounds has revealed several candidates, including lead compound ebselen, with the potential for treating COVID-19.
Researchers testing 2-deoxy-D-glucose in mouse models of ovarian cancer report that the compound significantly improves the effectiveness of the chemotherapy drug, carboplatin.
Researchers who developed modified proteins say this could be used in the fight against COVID-19, by tackling cytokine storms.
Researchers hope that by revealing the rotavirus VP3 protein structure and mRNA capping functions, novel antivirals could be designed to prevent or combat rotavirus infections.
An international consortium suggest that the severe symptoms of COVID-19, including Acute Respiratory Distress Syndrome (ARDS), could be caused by Neutrophil Extracellular Traps (NETs).
A study has shown that two products of bacterial bile metabolism boost the conversion of precursor T cells into peripheral Tregs, which suppress chronic inflammation in the colon.
There are heightened levels of abnormal stem cells in the lungs of COPD patients, presenting a drug target that researchers are screening compounds against.
How has evolution led us to the point where humans are an ideal host for SARS-CoV-2, the virus that causes the COVID-19 coronavirus?
According to a new study, the drug remdesivir is a very potent inhibitor for coronavirus polymerases - demonstrating its potential for combatting COVID-19.
Chinese researchers who determined the crystal structure of the COVID-19 protease Mpro used this information to screen over 10,000 compounds to combat the coronavirus.
Researchers propose using mesenchymal stem cells to counter the pro-inflammatory cytokines associated with COVID-19 coronavirus symptoms.
By targeting NHE7 transport proteins in pancreatic tumours, researchers caused the pH of cancer cells to become acidic, combatting the condition.