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In this magazine find articles discussing antimicrobial resistance, exploring why inhibiting the interaction between SARS-CoV-2 and neuropilin-1 could help combat COVID-19, as well as how CRISPR can be used to enhance productivity in cell line development. Also in this issue, features on engineering new biologic drugs and precision medicine.
Scientists have shown how SARS-CoV-2 induces changes in the architecture of host cells to drive replication and made their data available to all.
Using atomistic simulations, a team has demonstrated how coronavirus Spike proteins move and vibrate to let the virus through cell walls.
Using a new CRISPR-Cas9 tagging strategy, researchers have developed a method that enables the imaging of hundreds of proteins in parallel.
Lan Zhu from Arizona State University explains how cryo-EM methods can be used to obtain structural information on membrane proteins such as GPCRs.
The molecular structure of the SARS-CoV-2 Envelope protein has been identified by researchers using nuclear magnetic resonance.
According to the study, the transcription factor IRF4 drives T cell differentiation and immunosuppression in multiple human cancers.
Scientists reveal that coronaviruses de-activate lysosomes before using them to exit infected cells and spread through the body.
Researchers used flow cytometry to characterise which types of T cells are involved in the immune response to COVID-19 and what they target.
Identify therapeutic effects and adverse responses to compounds earlier in the drug discovery process.
Using cryo-electron microscopy and site-specific mass spectrometry, researchers have mapped the glycans that shield HIV from the immune system.
A new report has said that by 2023, the flow cytometry market will be worth $8.88 billion, partly due to an increase in stem cell research.
When delivered intranasally, the anti-inflammatory drug VX-765 prevented axon demyelination and loss in a murine model of multiple sclerosis (MS).
Combining 2D and 3D models with live-cell assays allows monitoring of cell responses in real time and provides important insights about compound treatment effects, biological complexity, and physiological relevance of assay results.
Learn how to perform complex analysis of calcium oscillations and assess cellular and mitochondrial toxicity.
