Novel microfluidic and sequencing method enables epigenetic studies
A new microfluidic technology has been developed which can profile histone modifications with as few as 100 cells per assay.
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A new microfluidic technology has been developed which can profile histone modifications with as few as 100 cells per assay.
Researchers are utilising computers to aid in their investigations into a COVID-19 treatment. Here, we highlight three studies using simulations, calculations and AI to identify a drug to combat the coronavirus.
Using mass spectrometry, researchers have shown how human cells are changed by infection from SARS-CoV-2, allowing the team to identify drug targets to prevent viral reproduction.
Learn how you could use high-content analysis for functional & phenotypic assays in your infectious disease research or drug discovery.
Bioassays and thin-layer chromatography has been used by scientists to analyse molecules in plant extracts as a fast and cost-effective method for identifying new drug compounds.
7 May 2020 | By PerkinElmer
High-throughput screening (HTS) cascades have evolved to ensure that high quality hits can be identified from large screening collections.
A rise in biotechnology R&D activities is expected to drive the growth of the immuno-oncology assay market, with a CAGR of 10.6 percent.
David Johnson of GigaGen discusses how recombinant forms of intravenous immunoglobulins (IVIG) could overtake current IVIG therapies and be used in the treatment of COVID-19.
A series of three new assays to screen for drug compounds or proteins that combat the COVID-19 coronavirus has been developed.
Bringing together protein science, drug discovery experience and innovative technology, a new collaboration aims to identify novel drug targets for COVID-19.
Researchers investigating telomere dieases such as dyskeratosis congenita have found lead compounds that reverse cellular ageing in mouse models of the condition.
Ali Shilatifard’s article explains how investment in institutes performing molecular research is essential, as it is the foundation for all attempts to combat COVID-19 and other future pandemics.
A new study has revealed that less than 10 percent of respiratory and intestinal cells are susceptible to SARS-CoV-2 infection and expression of ACE2 receptors is driven by the body's immune response.
The developers of a novel method to create immunological assay probes for screening T cells has leveraged their new protocol against COVID-19.
The visualisation platform is being used to analyse how the SARS-CoV-2 virus causing COVID-19 is evolving and could be used to inform drug design.